Catalysis research strengthened: Helmholtz-Zentrum Berlin participates in newly approved Einstein Center for Catalysis

HZB scientists develop new methods to investigate the electronic structure of catalytic molecules. </p>
<p>

HZB scientists develop new methods to investigate the electronic structure of catalytic molecules.

© HZB

The Einstein Foundation will fund the new Einstein Center for Catalysis (EC2) beginning in 2016 in which Technical University Berlin (TU Berlin) and selected non-university institutions in Berlin will be participating. Prof. Emad Aziz, head of the HZB Institute for Methods of Materials Research at Helmholtz-Zentrum Berlin will be taking part in setting up the institution. His team will be contributing particular expertise in analytics of ultrafast processes in catalytic reactions.

Catalysis is a key topic of the future, whether for the energy transition or for processing of raw materials. If we want to utilise resources more efficiently and sustainably in the future, outstanding catalysts are indispensable. HZB is therefore strengthening its catalysis research and working with collaborating partners toward specific goals.
Methods will be developed at the Einstein Center for Catalysis (EC2) that facilitate deeper investigation of chemical and biological catalysts. The dynamics of catalysis processes in particular will be better understood with these methods. “The formation of the inter-institutional Einstein Center for Catalysis is a real milestone for catalysis research in Berlin. HZB will be involved even more strongly in catalysis research on Energy Materials in the future“, says Prof. Anke Kaysser-Pyzalla, Scientific Director of HZB.

The new Einstein Center builds on the UniCat (Unifying Concepts in Catalysis) Excellence Cluster at Technische Universität Berlin (TU Berlin). Besides HZB, the main partners in the new Einstein Center are the Fritz Haber Institute of the Max Planck Society, the Leibniz Institute for Molecular Pharmacology Berlin, the Leibniz Institute for Analytical Sciences Berlin, as well as the UniCat-BASF Joint Lab. The spokesperson of the new Einstein Center is Prof. Matthias Drieß from the Organometallic Chemistry and Inorganic Materials branch of the Department of Chemistry, TU Berlin. “In order to be able to determine the dynamics of active reaction centers with a high degree of temporal as well as spatial resolution, we need HZB as a partner with its outstanding analytics at BESSY II ”, says Drieß.

The HZB Institute for Methods of Material Development develops new experimental methods that utilise light in the X-ray or extreme UV regions. “These methods permit us to make new tools available in order to investigate the electronic structure of catalytic molecules and the ultrafast processes that occur during catalysis under realistic conditions like room temperature and standard atmospheric pressure”, explains Aziz. “Dr. Tristan Petit and Dr. Annika Bande, whose groups are supported by Freigeist grants from the Volkswagen Foundation, will also benefit from the large network of catalysis research in Berlin.”

The new Einstein Center is to be funded initially for five years beginning in January 2016.

arö


You might also be interested in

  • A simpler way to inorganic perovskite solar cells
    Science Highlight
    17.04.2024
    A simpler way to inorganic perovskite solar cells
    Inorganic perovskite solar cells made of CsPbI3 are stable over the long term and achieve good efficiencies. A team led by Prof. Antonio Abate has now analysed surfaces and interfaces of CsPbI3 films, produced under different conditions, at BESSY II. The results show that annealing in ambient air does not have an adverse effect on the optoelectronic properties of the semiconductor film, but actually results in fewer defects. This could further simplify the mass production of inorganic perovskite solar cells.
  • Spintronics: A new path to room temperature swirling spin textures
    Science Highlight
    16.04.2024
    Spintronics: A new path to room temperature swirling spin textures
    A team at HZB has investigated a new, simple method at BESSY II that can be used to create stable radial magnetic vortices in magnetic thin films.

  • BESSY II: How pulsed charging enhances the service time of batteries
    Science Highlight
    08.04.2024
    BESSY II: How pulsed charging enhances the service time of batteries
    An improved charging protocol might help lithium-ion batteries to last much longer. Charging with a high-frequency pulsed current reduces ageing effects, an international team demonstrated. The study was led by Philipp Adelhelm (HZB and Humboldt University) in collaboration with teams from the Technical University of Berlin and Aalborg University in Denmark. Experiments at the X-ray source BESSY II were particularly revealing.