Research Interests:
My research interests focus on the construction, analysis, and application of numerical methods to solve partial differential equations that arise in emerging fields, especially those governed by hyperbolic conservation laws and those involving moving or complicated geometries.
In addition to conducting rigorous analysis of the proposed methods and developing related computational tool in parallel computing environments, I collaborate with various research groups from across the world on problems like tumor growth modeling, simulation of virotherapy, river meandering study, and reduced-order models of complex flows.
Last but not the least, I work on high-performance computing challenges related to these problems.
My current research topics include:
- A inherently superconvergent hybrid-variable (HV) discretization framework for hyperbolic and parabolic partial differential equations.
- Mathematical and numerical investigation of time-delayed PDE model of biological systems such as immune cell infiltration in tumor dynamics and virus infection of skin cells.
- A shifted boundary method (SBM) for compressible flows on complicated or moving boundaries, and related reduced order models (ROM).
- An ALE-EBM method that enables embedded boundary computation of multi-material flows on moving grids, with particular interest in shock hydrodynamics and fluid-structure interactions.
- Mathematical and numerical investigation of meandering instability in various fluid-like systems, with model validation with field observation and experimental data.