Our lab specializes in studying multiphase flow and transport through porous materials. The primary weapon in our toolbox is visualization – we think seeing is not only believing, but also the first step to understanding. We combine novel techniques in microscopy, synchrotron X-ray, and neutron imaging to discover cool and fundamental phenomena that govern fluid motion, reactions, and trapping in complex porous structures.

We are passionate about mitigating rapidly accelerating global climate change, caused in large part by anthropogenic carbon emissions. The goal of our research, therefore, is to aid the development of practical, high-impact technologies capable of significantly reducing the carbon footprint of our energy systems. Our climate-change mitigation research spans CCUS (including geological CO2 sequestration), green hydrogen generation, and hydrogen storage in geological formations, with a focus on the pore-scale mechanisms that control efficiency, safety, and long-term performance. We also contribute to the broader energy transition through research on nuclear waste disposal associated with SMRs, critical mineral extraction (e.g., energy-transition minerals), and greener bitumen extraction, where improved transport and reaction understanding can reduce water use, energy intensity, and environmental impact. Collectively, these research areas support the Canadian government’s vision of positioning Canada as an energy superpower, enabled by innovation in low-carbon technologies, responsible resource development, and secure energy storage.

We are additionally interested in understanding the impact of climate change on the hydrologic system, and how our society can adapt to minimize associated damages. Our climate-change adaptation research focuses on problems such as water infiltration and seawater intrusion under changing climate conditions, using the same mechanistic, visualization-driven approach to connect fundamental processes to real-world outcomes.