Research
My Ph.D. research is centered on the observation that microstructures can have a profound effect on a material's physical properties. In my work, I develop mathematical and computational models (phase-field methods) to understand and predict how fundamental material constants and microstructures influence material behavior. These insights are then used to guide the discovery and design of materials with enhanced performance in battery electrodes.
Besides, my master's studies have provided me with over three years of experience in ABAQUS and Ansys, specifically in the domain of structural stability analysis (e.g., buckling and fatigue analysis).
Electro-Chemo-Mechanical Modeling for Battery Intercalation Materials
Phase-field modeling of multiphysics in intercalation compounds, linking lattice transformation to microstructural evolution, to macroscopic performance.
Read more →Chemo-Mechanical Failure Analysis in Alloying Battery Electrodes
Continuum mechanics modeling of Li-diffusion coupled with finite lattice deformation to investigate microstructural evolution in Spinel LMO during cycling.
Read more →Buckling Analysis for Thin-Walled Structures
Structural stability analysis of thin-walled components using ABAQUS and Ansys, including buckling and fatigue assessment.
Read more →Structural Stability Analysis of Mechanical Systems
FEA-based analysis and design of pressure equipment and thin-walled systems per JB/T 4732 and ASME BPVC, including stress, fatigue, and safety assessment.
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