CMDS Laboratory
I am developing multiscale and AI-enabled modeling approaches to understand and design heterogeneous catalysis and battery materials. My work integrates first principles simulations with machine learning to extract mechanistic insight and to build predictive, interpretable models that remain anchored to physics. In particular, I focus on how realistic interfacial environments such as solvation, surface coverage, defects, and dynamic restructuring reshape reaction energetics and kinetics, and how these effects ultimately control activity, selectivity, and stability. Further, I collaborate closely with experimental teams to translate computational results into measurable, design-relevant guidance, including testable hypotheses, prioritized material targets, and operating condition trends.
2026
ACS Omega
Electrochemical reaction, PFAS degradation, Transition metal materials
2025
Journal of the American Chemical Society
Thermal reaction, Cation exchange reaction, Heterostructure
2025
Energy & Environmental Science
Electrochemical reaction, Li-Fe battery, PANI polymer
2025
ACS Catalysis
Hybrid model, Reaction kinetics, MXene materials
2025
Applied Catalysis B: Environ
Multiscale simulation, NRR reaction, SAC materials
2025
Chemical Engineering Journal
Transformer model, Drug discovery, Pharmacokinetic prediction