Our laboratory conducts fundamental research in catalytic science with attention to its practical application. We aim to advance the understanding of catalytic processes that underpin environmentally-responsible energy conversion and chemicals production. Our research integrates mechanistic studies of heterogeneous catalysis with state-of-the-art characterization techniques, with a strong focus on synchrotron-based methods. These enable us to determine catalyst surfaces and structures under operando and operation-relevant conditions, revealing the electronic and structural dynamics that govern catalytic activity and selectivity.
Current research topics include CO₂ conversion, alkane selective oxidation and dehydrogenation, methanol-to-hydrocarbons conversion, and ethylene epoxidation. By elucidating the fundamental reaction pathways and active sites involved in these transformations, we seek to establish design principles for next-generation catalytic materials. Materials design is supported by elucidation of mechanisms by which catalysts are formed during synthesis. Our work contributes to the development and application of cutting-edge experimental facilities that allow us to bridge the gaps between surface science and applied catalysis. Through this comprehensive approach, we contribute to the development of sustainable catalytic processes essential for future energy and chemicals production technologies.