Project Details
Projekt Print View

SFB 1093:  Supramolecular Chemistry on Proteins

Subject Area Chemistry
Biology
Medicine
Term from 2014 to 2022
Website Homepage
Project identifier Deutsche Forschungsgemeinschaft (DFG) - Project number 229838028
 
The CRC aims at applying recent knowledge and methods from supramolecular chemistry to achieve specific interaction with proteins by artificial ligands. In contrast to classic medicinal chemistry, the supramolecular ligands will not only be bound to well-defined clefts, but also on the protein surface, in shallow grooves or in pores. To this end, various new concepts are explored by the chemists, who design and synthesize supramolecular ligands, characterize their binding profile and pass them on to the biologists. Here, the new ligands are employed to answer general biological questions, which can best be tackled with supramolecular chemistry. Inter alia, specific protein recognition by synthetic ligands helps to elucidate biochemical mechanisms of allosteric and cooperative protein activation, or the function of protein pores. Specific inhibition or reinforcement of protein protein interactions will clarify their biological function, e.g. in chaperones, proteases, transport systems and mitotic regulators. Through the unique combination of novel concepts for protein recognition by artificial ligands with molecular and cell biology, and the strong support from bioinformatics and structural biology we hope to significantly advance the young research field of biosupramolecular chemistry. In the first funding period, we established a proof-of-principle for the CRC concept: various supramolecular ligands (and hosts) were developed for the proteins of our consortium, and shown to bind to protein surfaces and modulate protein function. Invaluable structural information on the preferred complexation site was provided by X-ray crystallography and NMR as well as Raman spectroscopy.In the next funding period, we will significantly advance our supramolecular ligands and send them to larger protein contact areas responsible for natural protein protein interactions. The consortium will also place more emphasis on the modulation of protein functions and subsequent transition to cell culture experiments, with a long-term perspective of potential medical applications.
DFG Programme Collaborative Research Centres
International Connection Netherlands

Completed projects

Applicant Institution Universität Duisburg-Essen
 
 

Additional Information

Textvergrößerung und Kontrastanpassung