Research

In our research, we delve into the foundational principles of electrochemistry to design and develop advanced electrocatalysts. By exploring the intricate mechanisms of electron transfer, surface interactions, and reaction kinetics, we aim to create catalysts that are highly efficient, selective, and durable. Our work in fundamental electrochemistry not only enhances our understanding of catalytic processes but also provides the scientific basis for the innovation of next-generation electrocatalysts, critical for various applications in energy conversion and storage. 

Understanding the fundamental properties of electrocatalyst materials is crucial for the rational design of effective catalysts. We employ advanced characterization techniques to perform in-depth analysis of catalyst materials at the atomic and molecular levels. This includes studying their structure, composition, and surface properties under various operating conditions. Our insights into the behavior of these materials guide the development of new catalysts with enhanced activity, stability, and selectivity, ultimately driving innovations in electrochemical energy technologies. 

Hydrogen is poised to play a pivotal role in the transition to sustainable energy systems. Our research focuses on the production of hydrogen through electrochemical processes such as water splitting and its subsequent utilization in fuel cells and other energy applications. We strive to improve the efficiency, cost-effectiveness, and scalability of hydrogen production technologies, while also exploring novel methods for hydrogen storage and conversion. By advancing hydrogen energy solutions, we contribute to the global efforts in reducing carbon emissions and achieving a clean energy future. 

Our research group is dedicated to developing cutting-edge catalysts and devices for a variety of electrochemical energy storage and conversion applications. This includes work on batteries, supercapacitors, and fuel cells, where we focus on enhancing performance metrics such as energy density, power output, and cycle stability. By engineering advanced materials and interfaces, we aim to optimize these technologies for both existing and emerging energy systems, thereby supporting the global shift towards more sustainable energy solutions.