Building research infrastructure that scientists can actually use
Notes on why usable software infrastructure matters as much as method development in AI-enabled computational science.
Quantum mechanics provides a powerful foundation for predicting molecular and material behavior. Yet applying it to problems such as materials design, drug discovery, and reaction chemistry remains challenging because accurate calculations are computationally expensive and chemical spaces are enormous.
My research focuses on closing the gap between what our physical models can predict in principle and what we can calculate in practice. I combine artificial intelligence, high-performance computing, and quantum chemistry to tackle challenging problems of the 21st century.
AI + HPC + QC = Accelerated Scientific Discovery
Machine-learned potentials, agentic AI, retrieval-augmented generation, and AI evaluation.
Scalable eigensolvers, automated workflows, exascale-ready software, and distributed training.
Agentic framework connecting natural-language requests to molecular construction, simulation (ASE, MACE, RDKit, and external QC codes), analysis, and reporting through LangGraph tools, a CLI, a Streamlit UI, and an MCP server.
Quantum Thermochemistry Calculator: integrates Open Babel with MOPAC/NWChem/Gaussian/Molpro calculations and MESS partition functions to generate NASA polynomials automatically.
Python framework for running quantum-chemistry workflows (single-point energies, geometry optimization, frequencies, thermochemistry) at scale with QC codes and machine-learned potentials (MACE, FAIRChem UMA), writing Parquet datasets for downstream analysis..
Agentified evaluation framework, built on A2A and MCP, for benchmarking code-generation agents that write PETSc programs..
All softwareNotes on why usable software infrastructure matters as much as method development in AI-enabled computational science.
Why chemistry agents should be judged by workflow completion, decomposition quality, and scientific correctness.