Computational Science

Research in computational electrochemistry — bridging first-principles simulations, statistical thermodynamics, and machine learning to understand catalytic surfaces.

3 Active Projects

Current Research

Machine-learning molecular dynamics applied to energy materials and structural ceramics — connecting atomistic simulations to electrochemical and mechanical observables.

  • Pt corrosion in fuel cells. The full Pt degradation sequence in PEMFC cathodes, simulated with the PtOH GAP potential and TurboGAP molecular dynamics.
  • Ta1−xHfxC ultra-high-temperature ceramics. Phase stability, mixing thermodynamics, and fracture of a solid-solution UHTC candidate for hypersonic leading edges and thruster nozzles.
  • General-purpose CuAu alloy GAP. A machine-learning interatomic potential for the full Cu–Au binary system, with direct application to CO2 reduction catalysis on nanoparticles.
GAP / TurboGAP Electrochemistry UHTC Ceramics CO₂ Reduction Surface Science
12 Articles

Publications

Peer-reviewed articles in computational electrochemistry, machine learning potentials, and surface science. h-index 7 · 1089 citations.

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About

Biography, curriculum vitae, and contact information.