Team:TU Darmstadt

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Revision as of 23:43, 4 October 2013

Darmstadt_Grafik_1

PROBLEM


It is estimated that about a quarter of the world’s food crops is affected by harmful mycotoxins produced by mould fungus.
FAO and WHO have developed three benchmarks of risk analysis: risk assessment, risk management and risk communication.
Our detection system covers those three benchmarks.


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STRATEGY



To easily detect biological toxins we developed a handy device, everybody is able to operate reliably.




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RESULT



In our results we show you all important informations about our work in the lab, with gorgeous graphs.






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Abstract



Mycotoxins produced by mould fungus are present in our daily life and are harmful for humans as well as for animals. The danger of contamination of grain and other natural products has fatal consequences for the economy and the supply of whole nations. The mycotoxins which are permanently formed by the fungus, can be used as biomarkers to detect contamination. We want to develop a handy device which allows an easy and reliable detection of mycotoxins. To achieve this goal our team uses various methods from the fields of synthetic biology, electrical engineering and information processing. The detection system relies on E.coli with modified aspartate receptors (TAR) which interact with specific mycotoxins. If these are present in the reviewed sample they will bind to the receptor and induce a conformational change and thereby generate a measurable FRET-beacon by bringing two flourophores in close distance to each other. The modified E.coli will be embedded in interchangeable capsules. Together with a handheld-device they will guarantee that measurements can be done quickly, easy to operate and secure. The data will be transferred from the handheld system to an Android smartphone app which will be able to analyze, illustrate and store the test results for the user.







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