Projects & Funding
The group was initiated in the framework of the Helmholtz Young Investigator Group programme with the support of the Helmholtz Association's Innovation and Networking Fund and the Helmholtz-Zentrum Berlin für Materialien und Energie.
EU project: FlowPhotoChem
FlowPhotoChem - Heterogenous Photo(electro)catalysis in Flow using Concentrated Light: modular integrated designs for the production of useful chemicals. We lead a work package targeting the development of flow cells and electrocatalysts for the electrochemical conversion of CO to added-value products. www.flowphotochem.eu, @flowphotochem. European project 862453.
HEMF: Helmholtz Energy Materials Foundry
The Helmholtz Energy Materials Foundry (HEMF) is a large-scale collaborative research-and-development platform dedicated to the synthesis of new and improved materials for energy conversion and storage applications. We lead the sub-project "Catalyst development for CO2 reduction".
Helmholz Climate Initiative
Within the Helmholtz Climate Initiative (https://www.helmholtz-klima.de/, @klimainitiative) we participate in the Mitigation project on Circular Carbon Approaches. With KIT and HZB PVcomB, we are studying the concept of buildings integrated with photovoltaics, direct air capture of carbon dioxide, and on-site conversion to valuable liquid products.
DFG project: Hybrid Interfaces for Photoelectrochemical CO₂ Conversion (HYPEC)
Project HYPEC is a collaboration with EPFL (Switzerland) and Université Grenoble Alpes (France) in the DFG Solar Driven Chemistry programme. We study the combination of semiconductor photoelectrodes with molecular and/or polymeric electrocatalysts for light-driven CO2 conversion. DFG project 428712064.
DFG project: Photoelectrochemical CO₂ conversion with tunable semiconductor nanostructures
In collaboration with the Paul-Drude-Institut für Festkörperelektronik and the HZB Institute for Solar Fuels, we study the influence of semiconductor electronic structure and morphology on light-driven CO2 conversion selectivity using ordered nanowire arrays of (In,Ga)N with well-defined, tunable properties (composition, doping, morphology). DFG project 442704684