Nanomaterials exhibit unique properties distinct from their bulk counterparts, making them valuable for a wide range of practical applications, including batteries, QLEDs, fuel cells, and water electrolyzers. Our lab focuses on designing and synthesizing nanomaterials with tailored structures to optimize their performance in energy-related devices. Our material portfolio encompasses metal alloys and intermetallics as catalysts, as well as conductive ceramics and crystalline carbons as support materials. These are engineered into integrated composite architectures, enabling the fabrication of supported catalysts optimized for diverse electrochemical systems. 

A deep understanding of fundamental electrochemical phenomena is essential for translating lab-scale findings into real-world device performance. By utilizing advanced in-situ characterization tools, we investigate catalytic reactions under realistic operating conditions, aiming to close this gap and guide the development of high-efficiency electrochemical systems.