My research focuses on the development of next-generation green solvents for sustainable recycling of lithium-ion batteries, with a particular emphasis on deep eutectic solvents (DESs).

I am interested in understanding how molecular interactions—such as hydrogen bonding, coordination chemistry, and solvation environments—govern metal leaching and separation behaviors. By designing novel DES systems beyond conventional chloride-based formulations, my work aims to establish chloride-free, low-viscosity, and industrially viable solvent platforms.

My current research explores three complementary directions:

Bio-based DES systems for low-temperature and low-viscosity metal extraction
Amino-acid-derived DESs to investigate Li-first or Li-selective leaching through differential solvation
Strong-acid, chloride-free DESs for rapid and scalable metal recovery

More broadly, I aim to bridge fundamental chemistry (coordination, redox, solvation structure) with process-level innovation, including programmable solvent systems, antisolvent crystallization, and closed-loop solvent recycling.

Ultimately, my goal is to contribute to the development of economically viable and environmentally sustainable battery recycling technologies.