Rare-earth-free permanent magnets
Physics-based modeling and machine-learning microstructure quantification for magnetic-field-assisted manufacturing.
Computational materials design · Boise, Idaho
We combine physics-based modeling and materials informatics to understand how chemistry, processing, and microstructure determine material performance.
From atoms to engineered performance
Research directions
Our work advances the science and engineering of materials microstructure across aerospace, energy, and biomedical applications.
All research areasPhysics-based modeling and machine-learning microstructure quantification for magnetic-field-assisted manufacturing.
Data-driven methods that connect chemistry, processing, structure, and properties to accelerate materials discovery.
Multiscale models of phase transformation, deformation, durability, and fracture in shape-memory materials.
Physics-informed digital twins and deep learning for estimating material behavior from evolving microstructures.
UPWARDS research connecting materials, devices, reliability, and workforce development across the U.S. and Japan.