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Published in Physics of Fluids, 2014
This paper presents a computational model for simulating three-dimensional microbubble dynamics near a wall when exposed to high intensity ultrasound. While previous studies focused on axisymmetric configurations, my research extends to fully three-dimensional dynamics using the boundary integral method.
Published in Physics of Fluids, 2015
This paper presents a numerical model for studying the 3D dynamics of ultrasound contrast agent (UCA) microbubbles using the boundary integral method.
Published in Interface Focus, 2015
This review paper examines the interdisciplinary field of cell mechanics in biomedical cavitation, focusing on the deformation behaviors of cellular entities like coated microbubbles and liposomes when subjected to cavitation flow.
Published in Ultrasonics Sonochemistry, 2017
This paper examines acoustic microbubble dynamics with viscous effects, important for biomedical ultrasonics, sonochemistry, and cavitation cleaning.
Published in Ultrasound in Medicine & Biology, 2019
This review paper examines the parameters that affect biofilm removal using acoustic cavitation. Biofilms are coagulated masses of bacterial microorganisms that adhere to surfaces and cause contamination in various medical and biological settings.
Published in Engineering Analysis with Boundary Elements, 2019
This paper presents a computational study of three-dimensional gas bubble dynamics between two curved rigid plates using the boundary integral method (BIM).
Published in Ultrasonics Sonochemistry, 2020
This study presents a numerical investigation of cavitation generated by an ultrasonic dental scaler tip vibrating in a compressible liquid using the finite element method.
Published in Ultrasonics Sonochemistry, 2020
This study reveals how ultrasonic dental scalers remove bacterial biofilm through cavitation.
Published in Journal of Hydrodynamics , 2021
This study investigates three-dimensional microbubble oscillation between two curved rigid plates under a planar acoustic wave using the boundary integral method (BIM).
Published in International Journal of Mechanical Sciences, 2023
This study investigates the three-dimensional dynamics of a transient bubble inside a corner formed by two rigid curved parabolic plates using the boundary integral method (BIM) based on potential flow theory.
Published in International Journal of Mechanical Sciences, 2024
This study investigates the behavior of an ultrasonically driven gas bubble between two parallel rigid circular walls with a cylindrical micro-indentation in one wall using OpenFOAM software.
Published in Engineering Analysis with Boundary Elements, 2024
This paper introduces an Extended Laplacian Smoothing (ELS) method to overcome numerical instability and mesh distortion in 3D bubble dynamics simulations using the Boundary Element Method.
Published in Ocean Engineering, 2024
This numerical study investigates the dynamics of two gas bubbles placed side-by-side in liquid between parallel rigid plates using OpenFOAM’s multiphase volume of fluid (VOF) model.
Published in Journal of The Electrochemical Society, 2024
This paper compares standard SEI growth models in lithium-ion batteries during formation cycles.
Published in JECS Meeting Abstracts, 2025
This work presents a continuum model for solid-electrolyte interphase (SEI) growth in lithium-ion batteries, grounded in bulk-surface non-equilibrium thermodynamics. The model systematically treats reaction kinetics, moving interface conditions, and chemical potential functions to derive a consistent set of equations governing species concentrations, electric potential, and SEI thickness. The study demonstrates how resistive effects of the growing SEI and capacitive effects of electrochemical double layers influence cell behaviour, with validation against experimental energy and power capacity data showing realistic performance across different charging rates.
Published in Experimental and Computational Multiphase Flow, 2026
This study numerically investigates a micropump mechanism driven by the collapse of a bubble near a perforated rigid plate. During collapse, a liquid jet forms toward the plate, and part of the jet flow passes through a truncated cone hole, transporting liquid from one side to the other — offering a micropump with no moving parts and exceptionally rapid response time. Using the volume of fluid (VOF) method with a single-field Navier–Stokes formulation accounting for surface tension and viscosity, the study examines the effects of cone angle, standoff distance, plate thickness, and liquid viscosity on pumping performance. Results show that increasing any of these parameters reduces the net mass pumped through the hole.
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Undergraduate course, University of Warwick, Mathematics Institute, 2025
I provided teaching support for MA265 Methods of Mathematical Modelling 3.
Undergraduate course, University of Warwick, Mathematics Institute, 2025
I provided teaching support and marking for the undergraduate course MA3D1 Fluid Dynamics.