In our research, we combine materials science, reaction engineering, and spectroscopic methods to gain a detailed understanding of catalysts. The insights obtained are fed back into the catalyst preparation process to optimize their catalytic performance.

Materials science encompasses the entire knowledge base of catalyst synthesis — from co-precipitation and impregnation techniques to advanced methods such as laser-synthesized catalytic nanoparticles and laser-modified support materials.

Reaction engineering involves testing the prepared catalysts in chemical reactions and evaluating their performance and selectivity. This field also includes optimizing reaction conditions to create an ideal environment that enables the catalyst to reach its full potential.

Spectroscopy provides insights into both the catalyst surface and the catalyst itself. Infrared (IR) spectroscopy reveals surface-bound intermediates, offers a view into the surface reaction mechanism, and can even identify the molecular composition of the catalyst or signs of catalyst poisoning. Additional techniques, such as chemisorption, complement this by providing deeper characterization and a broader understanding of the catalyst.

Together, these disciplines drive progress in catalysis research and form the foundation of a modern catalysis laboratory.