Atomistic simulation
DFT, ab initio molecular dynamics, and machine-learned interatomic potentials for amorphous materials, surfaces, and interfaces.
Materials Scientist · Pacific Northwest National Laboratory
I combine physics-based simulation with AI, from Bayesian models to autonomous agents, to design new materials and close the loop between computation and experiment.
Computational materials scientist at PNNL.
I am a computational materials scientist on the Materials Discovery Team at Pacific Northwest National Laboratory, where I specialize in ab initio modeling and active learning to help bridge the gap between simulations and experiments. I previously worked as a research scientist at Citrine Informatics, specializing in materials informatics, and before that as a postdoc in PNNL's Basic & Applied Molecular Foundations group, studying CO2 capture and heterogeneous catalysis.
I earned my B.S. in Applied Mathematics with an emphasis in Physics from UC Riverside in 2015, then stayed for a Ph.D. in Materials Science & Engineering, first in Bryan Wong's Nanoscale & Mesoscale Energy Materials group and then in Alex Greaney's Computational Materials Group. My dissertation focused on atomistic modeling of amorphous materials, particularly amorphous metal oxides and water-in-salt electrolytes.
In my research I combine atomistic modeling at both the electronic (quantum) and atomic (classical) levels with machine learning, and increasingly with LLM-based agents: I am a core contributor to SciLink, an open-source platform of agents for automating scientific research, where I build the simulation agents. I am passionate about finding new ways to solve problems in materials science and chemistry in silico in order to accelerate scientific discovery.
Where simulation, data, and experiment meet.
DFT, ab initio molecular dynamics, and machine-learned interatomic potentials for amorphous materials, surfaces, and interfaces.
Bayesian and uncertainty-aware models, from surrogate models over curated datasets to per-atom uncertainty in learned potentials, so predictions come with a measure of trust.
Sequential design and Bayesian optimization that choose the next simulation or experiment, and closed loops that run them on real instruments.
LLM-powered agents that plan, analyze, and simulate, so that physics-based modeling becomes a tool an autonomous workflow can pick up and use.
See SciLink →National lab, industry, and back again.
Pacific Northwest National Laboratory · Materials Discovery Team · Richland, WA
Research on active learning, uncertainty-aware machine learning, and atomistic modeling for materials discovery, autonomous synthesis, and nuclear waste form design.
Citrine Informatics · External Research Department · Remote
Materials informatics research on funded programs, including physics-informed machine learning for glass design and multi-institutional data management for combinatorial materials science.
Pacific Northwest National Laboratory · Basic & Applied Molecular Foundations Group · Richland, WA
Computational design of carbon capture solvents and catalysts using ab initio molecular dynamics and density functional theory.
University of California, Riverside
University of California, Riverside
Beyond the papers.
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