Carnegie Mellon University · Mechanical Engineering
We develop multiscale, physics-driven AI to predict how engineered parts form and perform, with an emphasis on advanced manufacturing and computational design.

High-fidelity simulations are expensive. We develop surrogate models and super-resolution methods that provide physics-informed insight with reduced computational demands.

Sensor limitations and noisy data introduce uncertainty. We use generative deep learning to characterize distributions from sparse data and enhance confidence in predictions.

Labeled engineering data is scarce. We develop self-supervised and pre-trained models that can be fine-tuned for specific tasks without thousands of labeled examples.

Principal Investigator
Assistant Professor of Mechanical Engineering. Previously: Postdoctoral Associate at MIT.
Ph.D., CMU MechE.
B.S.E., Princeton ChemE.