Prof. Max Hülsey
Ph.D. Prof.
Max
Hülsey
Technische Universität München
Professur für Katalytische Grenzflächen für Energieträger (Prof. Hülsey)
Postadresse
Lichtenbergstr. 4
85748 Garching b. München
Research
Our research interests focus on gaining a fundamental understanding on how electrochemical polarization effects impact reactions without nominal charge transfer. Specifically, we will measure adsorbate coverages on polarized catalyst surfaces and ultimately unveil the influence of applied polarization on reaction kinetics and the selectivity of catalytic transformations of sustainable energy carriers. In addition, we will measure non-equilibrated ion distributions and ion transport kinetics in electrochemical systems by experimental means.
We will leverage this fundamental insight to design improved catalytic technologies for the thermochemical conversion of small molecules like CO, CO2 and N2 and the development of improved electrochemical technologies. A particular focus in our group will be the interconversion of chemical energy storage compounds related to H2 (see research overview).
Publikationen werden geladen...
ACS Catalysis
Abstract: H2-reduced phosphomolybdate (PMA) demonstrated promising aerobic selective methane oxidation activity at room temperature. However, this catalytic system remains limited by insufficient methane…
Nature Catalysis
Abstract: The selective partial oxidation of methane to methanol using molecular oxygen (O2) represents a long-standing challenge, inspiring extensive study for many decades. However, considerable challenges…
ACS Catalysis
Abstract: Heterogeneous thermocatalytic hydrogenation is widely believed to occur via co-adsorption of H2and other reactants, but in aqueous phase an ionic or electrochemical mechanism was also proposed.…
Angewandte Chemie - International Edition
Abstract: A CO2-mediated hydrogen storage energy cycle is a promising way to implement a hydrogen economy, but the exploration of efficient catalysts to achieve this process remains challenging. Herein,…
Nature Communications
Abstract: Single-atom catalysts have recently been applied in many applications such as CO oxidation. Experimental in situ investigations into this reaction, however, are limited. Hereby, we present a suite of…
Wintersemester 2026/2027
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