From electrode interfaces to megawatt plants — we design, model, and diagnose the electrochemical systems that convert renewable electricity into hydrogen and carbon-based fuels.
Porous transport layers, flow-field design, and two-phase transport — resolved by X-ray imaging and CFD, from single cells to differential-pressure stacks.
Durable electrodes, separators, and stack engineering for dynamic operation with renewables — including shunt-current and reverse-current mitigation.
Electrode and cell architectures that convert captured CO₂ into formate and other e-fuels, guided by transport modeling and operando analysis.
Physics-based models and degradation diagnostics that connect lab measurements to stack lifetime, safety, and the economics of green hydrogen.
We are recruiting MS/PhD students and postdoctoral researchers in electrochemical engineering, transport modeling, and stack diagnostics.