This is why we are here.
Our lab research focus on charge transport and failure mechanism in electroceramics for next-generation energy technologies. The primary focus lies in the fundamental understanding of charge transport at interfaces and the failure mechanisms in novel energy storage and conversion systems.
Charge transport and transfer in electroceramics has implications for a broad range of materials and technologies such as solid oxide fuel cells, solid state batteries, and memristors. However, many questions remain unanswered due to the insufficient of fundamental understanding.
In advanced electrochemical systems, ex-situ characterization methods are widely used to study interfacial or bulk behaviors of active materials including morphology, chemistry, and crystallinity. However, the ex-situ characterization requires disassembling electrochemical cells, post-treating samples, and transferring to characterization tools without available air-free transfer vessels, which might alter the real chemical and structural information and create a discrepancy between studies.
Therefore, it is essential to apply operando and multimodal characterization in understanding dynamic behavior in electrochemical systems. But…
Machine learning and AI-assisted methods have found extensive application in the field of advanced energy technologies. These techniques are employed for diverse purposes, including performance prediction, failure analysis, and materials discovery.
However, several critical questions are emerging…
