Our research interests are at the interface of synthetic organic, biological and supramolecular materials chemistry, with emphasis on functional supramolecular chemistry. The general objective is to create functional systems from scratch, using methods such as multistep organic synthesis, dynamic covalent chemistry, polymer chemistry, self-assembly, molecular recognition, templation and so on. Design strategies often integrate unorthodox or "exotic" interactions and address challenges from nature. Current functions of interest are catalysis with anion-π interactions and chalcogen bonds, cellular uptake (strain-promoted, thiol-mediated) and fluorescent probes (mechanosensitive). Other functions covered include transport of electrons in photosystems, or ions and larger molecules in lipid bilayer membranes and sensing systems.

PhD and postdoctoral researchers working on these projects obtain expertise in target-oriented multistep organic synthesis. The evaluation of the created functional systems broadens the experience with various methods used in different subdomains. The time devoted to the evaluation of systems depends on interest - from 1% to 99% (!) -, including optional in-depth follow-up in fruitful in-house collaborations (computational chemistry, ultrafast photophysics, cellular uptake, GUV imaging).


unige NCCR
erc mca