

Curtis Berlinguette
Professor
curtis.berlinguette@ubc.ca
Home departments: Chemical & Biological Engineering and Chemistry
Website: https://groups.chem.ubc.ca/cberling/
Research Interest
- Reactive CO2 Capture
- Advanced Nuclear Fusion
- Flexible Automation
- Membrane Reactors
- Electric Cement
Current Research Work
The Berlinguette Group designs and builds advanced electrochemical reactors to power the planet.
- Reactive carbon capture: Our program pioneered electrochemical reactors that convert CO2 capture solutions directly into fuels and chemicals. This work is being commercialized through Sora Fuel, and we continue to develop AI-driven methods to advance this technology.
- Electrification of the chemical industry: We are decarbonizing industrial hydrogenation reactions, which account for 4% of global CO2 emissions. To achieve this goal, our team is advancing a membrane reactor “Thor” to drive hydrogenation reactions at high rates of production. These membrane reactors can decarbonize the production of specialty chemicals, fuels, biofuels, pharmaceuticals, and plastics.
- Decarbonizing the built environment: Cement production is the largest emitter of CO2, and the global footprint will double by 2050. We are designing and building reactors that use electricity and water, not high temperatures, to generate cement. We produce 75% less CO2 when making cement and concrete.
- CO2 Storage: We are exploring reactors capable of storing >50 gigatons of CO2 each year. We are advancing this field using electricity and abundant minerals to permanently capture and store carbon dioxide as rock. We are offering the world the first scalable and accountable way of permanently storing CO2.
- Flexible automation: We built self-driving laboratories, such as Ada, to accelerate the deployment of clean energy technologies.
- Advanced nuclear fusion: We combine electrochemistry with nuclear fusion sciences to drive fusion events at lower temperatures than currently known. Our mission is to create a low-cost energy source that can scale within the span of a human lifetime.