Georg Forster Research Fellow explores photocatalysts

Dr. Moses Alfred Oladele is working on photocatalysis for CO<sub>2</sub> conversion in a joint project with the group of Dr. Matt Mayer, HZB, and Prof. Andreas Taubert at the University of Potsdam. The chemist comes with a Georg Forster Research Fellowship from the Alexander von Humboldt Foundation.

Dr. Moses Alfred Oladele is working on photocatalysis for CO2 conversion in a joint project with the group of Dr. Matt Mayer, HZB, and Prof. Andreas Taubert at the University of Potsdam. The chemist comes with a Georg Forster Research Fellowship from the Alexander von Humboldt Foundation. © HZB

Dr. Moses Alfred Oladele is working on photocatalysis for CO2 conversion in a joint project with the group of Dr. Matt Mayer, HZB, and Prof. Andreas Taubert at the University of Potsdam. The chemist from Redeemer's University in Ede, Nigeria, came to Berlin in the summer of 2024 with a Georg Forster Research Fellowship from the Alexander von Humboldt Foundation and will work at HZB for two years.

Dr Moses Alfred Oladele studied Industrial Chemistry in Adekunle Ajasin University Akungba-Akoko (BSc), and continued his studies for the Master’s degree in Redeemer’s University in Ede, Osun State, Nigeria, where he also obtained his doctorate in 2021. He has since worked as a lecturer at Redeemer's University and as a scientist at the African Centre for Environmental and Water Research (ACE WATER), developing low-cost materials for environmental remediation of toxic wastes in water and monitoring pollutants in South West Nigeria.

In Matt Mayer's group, he will focus on researching new low-cost catalyst materials that can be activated by sunlight and used to convert CO2 into valuable chemicals with a net zero carbon footprint.

arö

  • Copy link

You might also be interested in

  • Precision interface chemistry pushes perovskite solar cells beyond 26% efficiency
    Science Highlight
    14.07.2026
    Precision interface chemistry pushes perovskite solar cells beyond 26% efficiency
    An international research collaboration has developed a new molecular strategy for controlling one of the most critical interfaces in perovskite solar cells. The resulting solar cells reached a power conversion efficiency of 26.19% in the n i p architecture, together with strong operational stability under prolonged illumination and elevated temperature. The results have been published in the Journal of the American Chemical Society.
  • Perovskite triple-junction solar cells: Even more efficient with GO/SAM bilayers
    Science Highlight
    09.07.2026
    Perovskite triple-junction solar cells: Even more efficient with GO/SAM bilayers
    Perovskite semiconductors efficiently convert sunlight into electrical energy; they are also inexpensive and extremely lightweight. A team at HZB has developed a triple-junction solar cell comprising different perovskite semiconductors, with a novel bilayer of graphene oxide (GO) and a self-assembled monolayer (SAM) as the hole conductor. This bilayer significantly increases both efficiency and long-term stability. The efficiency of the novel perovskite triple-junction solar cell is 27.3% and shows hardly any decline even after more than 770 hours of operation. The study has been published in the renowned journal Joule.
  • Green Deal Ukra&#1111;na at the Ukraine Recovery Conference
    News
    09.07.2026
    Green Deal Ukraїna at the Ukraine Recovery Conference
    End of June, the Ukraine Recovery Conference (UCR2026) took place in Gdańsk, Poland. Unlike previous editions, URC2026 introduced a dedicated Energy Platform, jointly organised by the Ministry of Energy of Ukraine and the Ministry of Climate and Environment of Poland, which brought together energy-related discussions, announcements, and side events in one place, increasing the visibility and coordination of key energy topics. Green Deal Ukraїna, an initiative coordinated by HZB, organised three events on the sidelines of URC on research and energy topics as part of the conference.