Physics-Informed Learning in Artificial Electromagnetic Materials
Deng, Y., Fan, K., Jin, B., Malof, J. M., & Padilla, W. J.
Charting the space between physics and machine learning.
I'm exploring what's next at the intersection of physics and machine learning. Most recently, I built AI-powered simulation tools as an early engineer at an AI startup; before that, I earned a Ph.D. at Duke studying machine learning for next-generation metamaterials — neural surrogates, inverse design, and active learning at the edge of physics.
An interactive notebook for optimization-under-constraints. Three modes — manual, guided, autonomous — each a different amount of trust given to the agent proposing the next experiment.
Deng, Y., Fan, K., Jin, B., Malof, J. M., & Padilla, W. J.
Xie, W., Deng, Y., Liu, Y., et al. (33 authors)
Deng, Y., Dong, J., Ren, S., et al.
Automated verification for simulation-based physics discovery.
Surrogates, inverse design, active learning — under physical constraints.
Transformer-based LLMs as high-dimensional scientific regressors.
Bayesian methods that make expensive simulations cheaper.
Currently — exploring what's next in physics and machine learning. Most recently, I built AI-powered simulation tools as an early engineer at an AI startup — joined as the 2nd, helped bring on the 3rd.