Scientific Machine Learning
Physics-Informed Neural Networks (PINNs), DeepONets, and neural operators for solving PDEs, inverse problems, and multiphysics systems.
Developing physics-grounded artificial intelligence and scientific machine learning methods for prediction, discovery, optimization, and engineering design.
The SPARKS Lab (Scientific Prediction through AI Research, Knowledge & Simulation) develops next-generation AI methods for scientific and engineering systems. Our goal is to build machine learning models that do more than fit data: they incorporate physical structure, scale to complex systems, and provide useful representations for scientific discovery and decision-making.
Our research spans physics-informed learning, neural operators, generative AI for science, and hybrid physics–ML modeling, with applications in climate and Earth systems, turbulence, nanoscale heat transport, inverse design, and engineering optimization.
We develop computational methods at the intersection of machine learning, applied mathematics, physics, and high-performance scientific computing.
Physics-Informed Neural Networks (PINNs), DeepONets, and neural operators for solving PDEs, inverse problems, and multiphysics systems.
Neural-operator bias correction, nudging strategies for E3SM, and hybrid AI–physics approaches for weather and climate prediction.
Generative and diffusion-based operator models for forecasting, super-resolution, and sparse reconstruction of turbulent flow fields.
Learning-based methods for ultrashort-pulsed laser heating, two-temperature models, and thermal transport in multilayer thin-film systems.
High-frequency representation, spectral-bias mitigation, multi-fidelity learning, and operator learning for complex physical systems.
Physics-informed optimization for thermal systems, risk-aware routing, mechanical metamaterials, and inverse design using neural operators.







Texas State University research support for physics-informed and data-driven methods for intelligent routing and decision-making.
High-performance computing allocations supporting physics-informed generative AI and extreme-weather modeling with neural operator methods.
Machine-learning methods for phase-change heat-transfer modeling and design, with contributions developed during work at Brown University.
SPARKS research uses ALCF Polaris and Aurora, along with Brown University's OSCAR cluster, for large-scale scientific machine learning experiments.
We welcome motivated graduate and undergraduate researchers interested in developing rigorous machine-learning methods for scientific and engineering systems. Students with backgrounds in computer science, applied mathematics, physics, and engineering are encouraged to get in touch.