In times of advancing climate change and the increasing depletion of fossil resources, the development of sustainable energy carriers is of crucial importance. Hydrogen storage plays a key role in this context, as it offers a promising solution for storing and providing renewable energy.
Our research focuses on chemical hydrogen storage and future energy carriers. A major emphasis is on the development of concepts based on the use of C1-compounds and -derivatives such as dimethyl ether (DME), formic acid, and methanol. These compounds offer potential for efficient hydrogen storage and transport solutions, which could support a sustainable energy economy.
A key aspect of our work is the development of catalytic systems. This includes both catalyst development and the design of novel reaction concepts. Our catalysts are used in hydrogenation, dehydrogenation, and steam reforming reactions, aiming to improve the efficiency and sustainability of these processes.
Material-wise, special focus is placed on phosphorus-containing heterogeneous catalysts, such as transition metal phosphides and metal phosphates, as well as In2O3-based catalysts. With their unique properties, they prove to be highly suitable for hydrogen storage and release applications.
By combining materials science, reaction engineering, and catalysis research, we contribute to the development of future energy solutions.