Modern chemistry has achieved remarkable success in transforming complex molecules, yet the fundamental question of how simple inorganic molecules evolve into complex organic systems remains one of the central challenges in science. In nature, living systems efficiently convert small inorganic molecules such as CO₂, N₂, and H₂O into sugars, lipids, and proteins through sophisticated catalytic networks powered by renewable energy. Understanding and replicating such transformations represents a grand opportunity for sustainable chemical synthesis.

My research aims to develop electrochemical strategies that enable the conversion of simple molecular feedstocks into value-added organic molecules. By using electricity as a programmable driving force, electrochemical systems provide a unique platform to control reaction pathways, generate reactive intermediates, and construct chemical bonds under mild conditions. I focus particularly on organic electrosynthesis methodologies and the design of catalytic systems that enable selective molecular transformations.

A key direction of my work is the development of electrochemical platforms for synthesizing high-value small molecules and isotopically labeled compounds. These molecules play critical roles in biological tracing, metabolic analysis, and disease diagnostics, yet their current production methods remain costly and inefficient. By integrating electrocatalysis, reaction engineering, and mechanistic understanding, my goal is to establish scalable electrochemical routes for producing these important chemical reagents.

Ultimately, my research seeks to bridge inorganic and organic chemistry through electrochemical processes, providing new strategies for sustainable chemical manufacturing and advancing our understanding of molecular transformations at electrified interfaces.