Foundation language model for generative polymer design
POLYT5
An encoder-decoder chemical language model that predicts polymer properties and generates new polymer structures conditioned on target performance.
Read moreMaterials informatics / polymer ML / computational chemistry
I build computational and machine-learning workflows that accelerate materials discovery, with recent work spanning polymer foundation models, physics-informed Gaussian Process Regression, autonomous structure generation, and data-driven design.
Focus
Foundation language model for generative polymer design
An encoder-decoder chemical language model that predicts polymer properties and generates new polymer structures conditioned on target performance.
Read morePhysics-informed Gaussian Process Regression for materials informatics
A public Python package for reproducible materials-informatics workflows with Gaussian Process Regression, uncertainty-aware prediction, materials fingerprints, and physics-informed mean functions.
Read moreAutonomous atomic-scale polymer model generation
A Python toolkit that builds a hierarchy of polymer models from repeat-unit SMILES, including oligomers, infinite chains, crystals, and amorphous structures.
Read moreSelected work
Applied Physics A, 2026, 132, 744
npj Artificial Intelligence, 2026, 2, 30
npj Computational Materials, 2026, 12, 27
Findings of ACL: EMNLP 2025, 2025, 12104-12119
Journal of Physical Chemistry Letters, 2025, 16, 747-753
Latest
A technical but accessible note on why encoder-decoder T5 architectures matter for polymer property prediction, conditional generation, molecule-text translation, and materials discovery workflows.
A note on our Applied Physics A paper showing why load-dependent experimental data can matter more than DFT-derived hardness proxies for Vickers hardness prediction.
A first note on matgpr, an open-source toolkit for uncertainty-aware, physics-informed Gaussian Process Regression workflows in materials informatics.