RESEARCH
TOPICS
Asymmetric Organocatalysis
Photoredox Catalysis and Electrosynthesis
Catalyst Design
CATALYSIS
Biologically active Targets
Organocatalysts
Organic Photocatalysts
Exotin
Torcetrapib
Asymmetric Organocatalysis
C2 -chiral phosphoric acids are metal-free
easy-to-handle strong Bronsted acids and allows the enantioselective formation of several bonds in mild conditions. These catalysts are used to promote several type of reactions such as cycloadditions or multicomponent reactions.
Photoredox Catalysis and Electrosynthesis
Visible light can be used as a free and sustainable source of energy to promote single electron or energy transfers (SET and EnT). Using photoredox catalysts various bonds can be created in mild conditions avoiding the use of toxic metals and harsh processes.
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Alternatively, electrochemical synthesis is used as a mean to drive redox transformations in a sustainable fashion by directly using electrons as safe and traceless reagents.
Catalyst Design
In order to reach maximum efficiency and enantioselectivity in catalytic processes, the 3D-structure and electronic properties of the catalysts can be finely tuned. Organo- , photoredox and hypervalent iodine based catalysts can be designed for specific or widespread applications.
Biologically active Targets
Nitrogen containing partners in cycloaddition reactions is a powerful approach to 4, 5, 6 and even 7 membered heterocycles. These targets synthesis knows limited progress in asymmetric version