Helmholtz-Zentrum Berlin is establishing a Helmholtz Young Investigator Group for electrochemical conversion of carbon dioxide

Dr. Matthew Mayer

Dr. Matthew Mayer

Dr. Matthew T. Mayer from the École Polytechnique Fédérale de Lausanne (EPFL), Switzerland, will be putting together a Helmholtz Young Investigator Group in the field of energy materials research at HZB. He will be researching into how carbon dioxide and water can be converted electrochemically into hydrocarbons such as methane and methanol using renewable energies. Matthew Mayer will receive 300,000 euros per year over a period of five years for establishing and running his Young Investigator Group.

Researchers are faced with the major challenge of developing new solutions for reducing the harmful emissions of carbon dioxide into our environment. One feasible solution is to use clean energy that will convert carbon dioxide and water electrochemically into hydrocarbons such as methane, methanol and ethylene, which are important raw materials for the chemical industry. The biggest hurdle will be improving the energy efficiency, reaction rates and yields from CO2 catalysis.

Research chemist Matthew T. Mayer is looking to produce novel electrocatalyst materials possessing heterogeneous bimetallic surfaces. Using synchrotron, X-ray and photoelectron spectroscopy, he will be observing these catalytic processes in situ and in operando in order to reveal detailed chemical information about the catalyst–molecule interactions in real time. In this way, Mayer wishes to deliver new insights into guided catalyst design, catalytic mechanisms and principles of cell design. These insights should help to reveal the potential of electrochemical CO2 reduction as a technology for producing valuable hydrocarbons.

“With Dr. Matthew Mayer, we are gaining a highly distinguished scientist whose field of research superbly complements our projects in energy materials research. His work will benefit from the many facilities for analysis and synthesis at HZB, and especially from their combination with the brilliant X-ray light from BESSY II,” says Prof. Dr. Anke Kaysser-Pyzalla, scientific director of HZB. 

Matthew T. Mayer is from the U.S., where he studied chemistry at Boise State University and earned his doctorate at Boston College. He currently heads the “Solar Fuels” group at the Laboratory of Photonics and Interfaces, led by Prof. Dr. Michael Graetzel at the École Polytechnique Fédérale de Lausanne. In this group, Matthew T. Mayer is investigating how sunlight can be converted directly into fuels. Prior to this, he conducted research for several years at Boston College in the USA. He holds two patents and has published numerous papers. He will be arriving at HZB to put together his Young Investigator Group in May 2017.

Two new Helmholtz Young Investigator Groups kick off in 2017

In 2016, HZB was especially successful in bidding for Helmholtz Young Investigator Groups. In a highly competitive process with 49 applications, thirteen new Young Investigator Groups in the Helmholtz Association were approved, two of which are from HZB. Alongside Matthew T. Mayer, HZB has acquired Dr. Antonio Abate, whose Helmholtz Young Investigator Group aims to improve the long-term stability of perovskite solar cells.

 About the Helmholtz Young Investigators Programme

The research programme fosters highly qualified young researchers who completed their doctorate three to six years ago. The heads of the Young Investigator Groups receive support through a tailored training and mentoring programme and are assured long-term prospects at HZB. One aim of the programme is to strengthen the networking of Helmholtz centres and universities. The costs – 300,000 euros per year per group over five years – are covered half by the Helmholtz President’s Initiative and Networking Fund, and half by the Helmholtz centres.

(sz)

  • Copy link

You might also be interested in

  • The future of corals – what X-rays can tell us
    Interview
    12.11.2025
    The future of corals – what X-rays can tell us
    This summer, it was all over the media. Driven by the climate crisis, the oceans have now also passed a critical point, the absorption of CO2 is making the oceans increasingly acidic. The shells of certain sea snails are already showing the first signs of damage. But also the skeleton structures of coral reefs are deteriorating in more acidic conditions. This is especially concerning given that corals are already suffering from marine heatwaves and pollution, which are leading to bleaching and finally to the death of entire reefs worldwide. But how exactly does ocean acidification affect reef structures?

    Prof. Dr. Tali Mass, a marine biologist from the University of Haifa, Israel, is an expert on stony corals. Together with Prof. Dr. Paul Zaslansky, X-ray imaging expert from Charité Berlin, she investigated at BESSY II the skeleton formation in baby corals, raised under different pH conditions. Antonia Rötger spoke online with the two experts about the results of their recent study and the future of coral reefs.

  • Susanne Nies appointed to EU advisory group on Green Deal
    News
    12.11.2025
    Susanne Nies appointed to EU advisory group on Green Deal
    Dr. Susanne Nies heads the Green Deal Ukraina project at HZB, which aims to support the development of a sustainable energy system in Ukraine. The energy expert has now also been appointed to the European Commission's scientific advisory group to comment on regulatory burdens in connection with the net-zero target (DG GROW).

  • Long-term stability for perovskite solar cells: a big step forward
    Science Highlight
    07.11.2025
    Long-term stability for perovskite solar cells: a big step forward
    Perovskite solar cells are inexpensive to produce and generate a high amount of electric power per surface area. However, they are not yet stable enough, losing efficiency more rapidly than the silicon market standard. Now, an international team led by Prof. Dr. Antonio Abate has dramatically increased their stability by applying a novel coating to the interface between the surface of the perovskite and the top contact layer. This has even boosted efficiency to almost 27%, which represents the state-of-the-art. After 1,200 hours of continuous operation under standard illumination, no decrease in efficiency was observed. The study involved research teams from China, Italy, Switzerland and Germany and has been published in Nature Photonics.