Research

Our group aims to understand the complex behaviors of polymers via bottom-up, predictive modeling and then reflect this knowledge in the development of design principles. Our research sits at the intersection of computational science, applied mechanics, data science, and machine learning for simulation- and data-driven materials/structures design.

Computational Mechanics and Dynamics

Molecular Dynamics · Discrete Element Method · Finite Element Method

Computational Mechanics

We apply bottom-up, predictive modeling and simulation to understand the complex behaviors of polymers and develop material design principles for the discovery of multifunctional, high-performance, and advanced polymers. We isolate the effects of parameters and determine structure–morphology–property relations of polymers.

Data-Driven System Design

ML Algorithms · Autonomous Experimentation · High-Throughput Simulation

Data-Driven Design

The properties of a given material are typically influenced by a host of parameters. We take full advantage of every simulation and experiment by deploying autonomous experimentation (AE) methods, in which machine learning algorithms enable autonomous data acquisition with surrogate model computation and uncertainty quantification — enabling high-throughput exploration of vast parameter spaces.