Headline

PhD Position: "Machine Learning based CFD of Point Particles in Turbulence (self-funded applicants)"
The accurate representation of unresolved point particles remains a fundamental challenge in multiphase flow simulations. Traditional models often rely on empirical assumptions that limit predictive capabilities, especially in complex or turbulent environments. This PhD project aims to revolutionize particle-fluid interaction modeling by leveraging advanced machine learning techniques in CFD. By analyzing high-fidelity simulation data and experimental datasets, the project will develop data-driven models that can accurately predict particle forces, trajectories, and interaction dynamics within the fluid without relying solely on simplified closures ().

My Research Vision

My research covers fundamental fluid mechanics with applications in environmental and industrial processes. I focus on "sustainable indoor and outdoor flows" and "efficient multiphase processes", aiming to enhance computational fluid dynamics (CFD) methods for complex particle-laden flows and turbulence modeling. I develop large eddy simulation (LES) and wall-stress models (WSMs) to improve accuracy and efficiency at high Reynolds numbers, and I utilise lattice Boltzmann methods (LBM) for multiphysics modeling. My work has significant implications for urban air quality, pollutant dispersion, and energy-efficient building ventilation, contributing to sustainable urban design. Through collaborations and rigorous validation, I strive to develop innovative solutions to critical environmental and industrial challenges.

Current Activities

Here, I list some of my recent academic and extracurricular projects.

Foundations of Teaching and Learning

Successfully completed the fruitful programme of "Foundations of Teaching and Learning" in five modules at The University of Manchester (May 2023).

Wall-modelled LES at UoM

I apply hybrid LES-RANS models to wall-bounded flows to make LES with a proper estimation of wall-shear stress.