Research
Computational Modeling of Plasma-Material Interaction
Exploration of Plasma-Materials Interaction in Semiconductor Manufacturing via Computational Methods
Theoretical investigation of plasma etching from the reactor scale to the atomistic scale
Multiscale simulations of the processing surface from atomistic to macroscopic feature scales
Evaluation of functional characteristics of plasma-treated surface
Development of a virtual process platform for semiconductor materials and process design
Data-driven Scale-bridging Method
Machine Learning-Enhanced Computational Modeling
Seamless scale-bridging using a reduced order modeling for plasma physics using deep learning
Systematic multiscale modeling enhanced by data-driven approaches
Development of machine learning interatomic potential for reactions on solid surfaces
Computational Mechanics for Functional Materials
Advanced Computational Mechanics for Materials Engineering
Multiscale analysis of polymeric materials through molecular dynamics, coarse-grained simulations, and continuum mechanics
Investigative insights into the interface and interphase of diverse nanomaterials
Analysis of plastic deformation, viscoelastic properties, and tribological behaviors