My research focuses on electro-osmosis as a technique for the consolidation and dewatering of low-permeability geomaterials, particularly fine-grained soils and tailings. These materials are often difficult to treat using conventional drainage methods because of their very low hydraulic conductivity and complex pore-water behaviour. Electro-osmosis (EO) provides an alternative approach by driving water migration under an applied electric field, offering considerable potential for geotechnical and environmental applications.

A major part of my work involves investigating the coupled hydro–electro–chemical–mechanical processes that govern electro-osmotic behaviour. This includes laboratory testing, theoretical analysis, and multi-physics numerical modelling. Through these approaches, I examine phenomena such as fluid flow, ionic transport, electrochemical reactions, chemical front development, cracking, and the influence of interfacial effects on dewatering performance.

I also study electrode passivation and electrode/material modification strategies to improve the efficiency, reliability, and durability of electro-osmotic systems. The overall aim of my research is to develop robust and engineering-oriented models that can better explain electro-osmotic mechanisms and support the practical design of sustainable soil improvement and dewatering technologies.