As Assistant Professor of Coupled Subsurface Processes, I apply expertise in geomechanics to address challenges and opportunities associated with coupled thermo-hydro-mechanical-frictional (THMF) processes in geo-energy development and mineral resource exploitation. My work aims to contribute to the scientific and societal goals of decarbonisation, sustainability, and subsurface resilience through research and teaching.

My research focuses on the application of geostatistical, geomechanical and hydrogeological principles across a broad range of geo-energy and geo-storage systems that underpin the energy transition. At one end of the spectrum is the geomechanical, hydrological and thermodynamic modelling and risk assessment for geo-energy systems, such as deep geothermal systems, geological carbon storage, hydrogen storage, aquifer and mine thermal energy storage, and unconventional reservoir exploitation. At the other end of the spectrum is rock property characterisation, resource evaluation, and mine design and scheduling associated with both metalliferous and non-metallic mining, contributing to the supply of critical raw materials essential for the energy transition. 

My core research expertise is in the areas of:

• monitoring, modelling and forecasting of rock excavation- and fluid injection-induced seismicity,

• physics-based and probabilistic evaluation of geo-hazard risk, 

• fault- and fracture-controlled THM processes and frictional slip behaviour, and 

• development of two-way sequentially coupled HM, fully coupled THM, and fully coupled HMF modelling frameworks.

Research portfolio in one figure

Towards net-zero