Research on Battery Materials:

My research focuses on the application of hydrated materials in proton conductors, ionic conductors, energy storage electrode materials, and superconducting materials. Key findings include the significant enhancement effects of confined structural water on thermodynamics (thermal stability and electrochemical stability) and ionic transport kinetics. These findings have led to a series of research outcomes in areas such as room-temperature/low-temperature proton conductors, lithium-ion solid electrolytes, and cathode/anode materials for ion-storage batteries.

Research on Battery Optimization:

Based on industrial expertise in big data and AI, interdisciplinary capabilities are developed for complex systems science. My work investigates the causal relationships among battery materials, cells, modules, and systems, as well as their connections to battery health, aging, failure, and thermal runaway. This research informs failure interception strategies for manufacturers and personalized usage optimization strategies. By leveraging the integration of academia and industry, algorithms are developed to match battery properties with product requirements,  thereby maximizing the effective utilization of materials and batteries.