iGEM (International Genetically Engineered Machine) is an annual international competition in Synthetic Biology founded by the Massachusetts Institute of Technology in 2003. Fostering new and interdisciplinary approaches to solving local and global problems through Synthetic Biology, the iGEM competition engages its participants to think out-of-the-box and go beyond their current knowledge. On top of that, the project shall integrate the entire society to make them part of it through human practices and community reach, being that the industry or the general public.
Since its inception, iGEM has transitioned from a curious challenge between MIT students to a global phenomenon driving the careers of new scientists, leaders, policymakers, and start-ups in the field of Synthetic Biology. As of 2022, more than 70.000 students have taken part in it, thus reaching up to 46 countries. In these times of globalization, iGEM is an example for cooperation, encouraging collaborations between teams worldwide every year.
The iGEM team Tübingen is composed by students from the University of Tübingen. We aim towards excellence and social responsibility. This professional attitude will stand in multiple occasions during public events on an international scale, but also in our internal organization and private communications with external associations.
The iGEM Giant Jamboree congress will be the closure for this year’s competition in Paris on the 20-23rd of October, the first global in-person event since the pandemic broke out, allowing us to showcase our project and meeting participants from around the world.
This year’s Team Tübingen will continue to be a standard-bearer for its success since 2013, being awarded several medals over this period.
Project: Anatoxin A E. coli Biosensor
In algae contaminated freshwater there is often an occurrence of cyanobacteria. During Harmful Algal Blooms (HABs), these produce toxins in high concentrations, consequently threatening wildlife. Anatoxin A is a cyanotoxin which can be produced by many cyanobacteria species, such as Anabaena. Its Method of Action is that it activates by binding irreversibly to the nicotinic acetylcholine receptor (nAChR) ion channels, therefore leaving them open indefinitely. Since these receptors are found in (mammal) muscle-cells, Anatoxin A leads to overstimulation of muscles, which then can cause respiratory failure and death.
We want to create a functionable and practical Biosensor for Anatoxin A in E. coli.