I am currently in my first year of an iPhD programme with the NGCM (Next Generation Computational Modelling) group and I am part of the Aerodynamics and Flight Mechanics group. My research project involves modelling the deposition and dynamics of particles in small, high-speed cyclones with my industry partner Dyson. Cyclones are a way of separating fine dust from air without the use of filters or moving parts. Optimising their efficiency (how well they can remove particulates from air) is of critical importance to reduce energy consumption and to achieve the desired level of performance.
This project will first involve the development of an Eulerian model for the particles in a highly-swirling flow with particular attention paid at the boundary layer. This means that particles will not be considered individually but as a density field which will massively reduce the computational cost of simulations. The effects of near-wall behaviour (boundary layers) on the particles heavily influences the rate and patterns of deposition and therefore a very high mesh resolution will need to be implemented at these locations during CFD simulations.
The model will then implement triboelectric phenomena using experimental evidence to produce a complete picture of how fine particles behave. These forces drive particle agglomeration, separation and adhesion; resulting in a varied particle size distribution. The sizes of the individual particles impact on their trajectories and therefore prediction of these triboelectric interactions is necessary to produce an accurate model.
I completed my undergraduate in Aeronautics and Astronautics at the University of Southampton in 2016. During this time, I completed my dissertation on particle deposition on wavy walls, designed a microlight (light aircraft) and designed and built a UAV. I have also worked previously in research for Dyson in separation systems on cyclones.
Professor, Engineering Sciences (FEE)