Area of research
Organic Chemistry · Materials Chemistry
Research interest
Research interests include Chemistry, Photochemistry, Photon upconversion, Catalysis, Visible spectrum, and Chromophore.
Pushing the limit of triplet–triplet annihilation photon upconversion towards the UVC range
Direct Observation of Triplet–Triplet Energy Transfer in DNA between Energy Donor and Acceptor C-Nucleotides
At the “Peak” of Vis-to-UV Upconversion: Clear Advantages of TIPS Substituents for a Biphenyl Annihilator
Arylthianthrenium Salts for Triplet Energy Transfer Catalysis
Triplet‐Sensitized Switching of High‐Energy‐Density Norbornadienes for Molecular Solar Thermal Energy Storage with Visible Light
Mechanistic investigations of polyaza[7]helicene in photoredox and energy transfer catalysis
Extension of the π-system of monoaryl-substituted norbornadienes with acetylene bridges: influence on the photochemical conversion and storage of light energy
Visible‐to‐UV Photon Upconversion: Recent Progress in New Materials and Applications
Direct Observation of Triplet States in the Isomerization of Alkenylboronates by Energy Transfer Catalysis
Geometric Isomerisation of Bifunctional Alkenyl Fluoride Linchpins: Stereodivergence in Amide and Polyene Bioisostere Synthesis
A new green-to-blue upconversion system with efficient photoredox catalytic properties
Visible‐to‐UV Photon Upconversion: Recent Progress in New Materials and Applications
Geometric Isomerisation of Bifunctional Alkenyl Fluoride Linchpins: Stereodivergence in Amide and Polyene Bioisostere Synthesis
Blue‐to‐UVB Upconversion, Solvent Sensitization and Challenging Bond Activation Enabled by a Benzene‐Based Annihilator
Vinylcyclopropane [3+2] Cycloaddition with Acetylenic Sulfones Based on Visible Light Photocatalysis**
Aufwärtskonversion von blauem Licht zu UVB‐Strahlung, Lösungsmittelsensibilisierung und anspruchsvolle Bindungsaktivierungen durch einen Benzol‐Annihilator
Purely organic Vis-to-UV upconversion with an excited annihilator singlet beyond 4 eV
Metal‐Free Twofold Electrochemical C−H Amination of Activated Arenes: Application to Medicinally Relevant Precursor Synthesis