Realistic Model Catalysts: Complex Materials for Atomic-Level Insights

Heterogeneous catalysis is critical for industrial processes and addressing global challenges in energy and sustainability. However, a persistent gap exists between simplified model systems, which allow for detailed atomic-level analysis, and the complex materials required for real-world catalytic applications. Bridging this gap is essential for understanding and optimizing catalysts under realistic operating conditions.
In this presentation, I will discuss approaches to designing and studying catalytic materials that combine the complexity needed for industrially relevant reactions with the accessibility required for advanced characterization. By integrating in-situ and operando techniques such as UV-Raman, FTIR spectroscopy, transmission electron microscopy (TEM), and synchrotron-based methods, my work aims to uncover structure-performance relationships and provide molecular-level insights into catalytic processes.
This approach seeks to advance both fundamental understanding and the development of more efficient and sustainable catalytic technologies.