Overview
Our group specializes in physics-based computational modeling/simulations of fluid flows involving multiscale/multiphysics phenomena, focusing on (but not limited to) multiphase flows, turbulent flows, and fluid-structure interaction. We also develop robust numerical methods and use tools such as artificial intelligence and high-performance computing. Applications include propulsion, energy, aerospace design, chemical and bioengineering, environmental flows, climate change, and many more.
We hope to become the global epicenter for computational fluids research in the upcoming years!
![](https://flow.me.gatech.edu/files/2023/12/research_overview-1-1024x572.png)
Atomization and Sprays
- Physics of primary and secondary breakup
Interfacial flow modeling
![](https://flow.me.gatech.edu/files/2023/11/drop_HIT-1.png)
Droplet-laden compressible isotropic turbulence
- Diffuse-interface modeling for two-phase flows
- Robust numerical methods for incompressible and compressible flows
- Unstructured grid formulations for complex geometries
Scalars and surfactant transport
- Numerical modeling of transport of passive and active scalars
- Scalars represent charged ions in two-phase electrochemical systems, surfactants, dissolved salts, and CO2 in the ocean
![](https://flow.me.gatech.edu/files/2023/11/channel_small-1024x801.jpg)
Scalar transport in a turbulent channel flow laden with drops
Particle-laden flows
- Physics of turbulence modulation by particles
- A.I. models for prediction of particle clustering in turbulence
- Correction methods for disturbance created by particles in two-way coupled flows
Aerodynamics, ice accretion, and flow over rough walls
- Wall-modeled LES of complex aircraft geometries with ice accretion
- Near wall modeling for LES of flow over rough walls
Fluid-Solid and Solid-Solid interactions
![](https://flow.me.gatech.edu/files/2023/11/no_striation-1-e1699070120564-1024x500.jpeg)
Collision of two hyperelastic solids in a Taylor-Green vortex
![](https://flow.me.gatech.edu/files/2023/11/RMI-1.png)
Richtmyer-Meshkov instability of Copper-Aluminum materials
- Eulerian modeling of fluid-solid and solid-solid interactions
- Highly deformable bodies
- Turbulent flow over compliant surfaces
- marine energy harvesting
Compressible flows, shocks, and turbulence
- LES of compressible turbulence
- Low-dissipative shock-capturing methods
Scientific computing
![](https://flow.me.gatech.edu/files/2023/11/Frontier_Supercomputer-1-1024x839.jpeg)
Frontier supercomputer
- High-performance computing
- Machine learning for fluids
- Quantum computing for fluids