projects
Left ventricle simulations Using the Immersogeometric Analysis
This project focuses on simulating the left ventricle using immersogeometric analysis. I am responsible for generating volumetric meshes for the finite element method (FEM) from non-watertight surface meshes provided by UT Austin. In addition, I implemented the Fortran code that reads the displacement of the heart wall and the mitral valve, applying them as velocity boundary conditions for the fluid domain. The simulation follows a one-way coupling approach.
Pulsating Jet Simulations
Using the Proteus framework, I implemented custom boundary and initial conditions for pulsating jet simulations. These simulations were executed on the Frontera supercomputer, followed by postprocessing and visualization of the results.
Highly Parallel Incompressible Flow Simulations Using the Shifted Boundary Method
This project focuses on simulating incompressible fluid flow over complex geometries using the Shifted Boundary Method, built on a highly parallel incomplete octree framework.
Efficient simulations based on Shifted Boundary Method and Adaptive Mesh Refinement
This project focuses on simulating fluid flow over complex geometries using the Shifted Boundary Method and dynamic adaptive octree meshes.
FlowBench: Incompressible Flow Simulations Dataset over Complex Geometries for SciML
This framework was used to generate simulations of flow past complex geometries and lid-driven cavity flow with obstacles for training scientific machine learning (SciML) models.
Flow past complex geometry (Argonne) using the Shifted Boundary Method.