Using the earth’s minerals to remove carbon from the atmosphere — permanently.
The world is in a race to Net Zero, looking for solutions to dramatically reduce the amount of carbon in the earth’s atmosphere.
At CO2 Lock, we are using science to accelerate and optimize what already happens in nature: mineralizing carbon in certain rocks. We call it Hard Rock Carbon Removal. A decade of our research demonstrates a mineral called brucite reacts with CO2 best, removing and locking carbon away permanently.
Rocks cooled the climate before. They can do it again.
We know planting trees is a leading method of pulling carbon from the air. But it’s not a permanent solution; when trees die, carbon is released back into the atmosphere. Not so with mineralization. When carbon reacts with minerals like brucite, new minerals form and the carbon is locked away for geologic time — forever. This process of carbon mineralization has the potential for global impacts on the earth’s temperature. It’s happened before. The earth cooled dramatically 25 million years ago; after India crashed into Asia and uplifted the Tibetan Plateau, the newly formed Himalayas began to weather and erode. Countless megatonnes of carbon in the atmosphere were captured and locked away forever. Hard rock carbon removal cooled the earth before. We are in business to make it happen again.
A new critical mineral in the fight against climate change
We know it works and can scale quickly — lowering risk
1. Ex Situ Water Mineralization
Highly alkaline water is extracted from brucite rich rocks. A CO2 stream is injected into the water to mineralize the CO2. The end product may be used for agriculture, forestry and other commercial purposes.
2. Ex Situ Processed Materials
Brucite-rich rocks are extracted and processed. The processed rock is either churned and watered to accelerate and maximize reaction with atmospheric CO2, or a CO2 stream is injected into the materials and the end product may be used in certain industrial applications.
3. In Situ CO2 Injection
CO2-rich fluids are injected underground into hard rock formations, where the CO2 reacts with brucite and becomes locked underground permanently.
We’ve mapped the globe for brucite and know where to find it.
We have a proven team
Dr. Peter M.D. Bradshaw, P.Eng.
Martin Turenne, CPA, CA
David Molinski, BA, MNRM
Dr. Nader Mosavat
CO2 Lock founding directors include FPX Nickel Chair Dr. Peter Bradshaw, a member of the Canadian Mining Hall of Fame and founder of the Bradshaw Research Institute for Minerals and Mining; and Martin Turenne, FPX Nickel President and CEO, who is leading the development of the $1.7B (NPV) Decar Nickel deposit in B.C. Our team and approach are science-based and laser focused on our mission: to think beyond the mine site and solve problems at global scale.
“We launched this business to solve global problems at scale by applying our decades of geological and engineering expertise to the biggest challenge we face.”
— Cooper Quinn, CEO
We have a clear path to commercialization.
We have a clear and systematic plan to develop a preferred commercial solution to a lower carbon future.
We have acquired land tenures in British Columbia and are currently conducting our first evaluation of the three methods to mineralize and store carbon to determine which is optimal. Our goal is pilot-plant trials in the field in 2024. At the same time, we are acquiring land tenures in key international jurisdictions to show the global potential of our climate solution.
We will build a demonstration project for the preferred method and commence planning of our first commercial project by 2026. We are scaling up prudently in the near-term: from one kilogram of CO2 for initial lab work, to hundreds then thousands of kilograms planned next year as we prove out process, to a potential 100,000 kg/year of CO2 at our planned large-scale demonstration project.
CO2 Lock Corp. Successfully Completes Significant Phase of Carbon Capture Kinetic Testing for Ultra-mafic CCS Project
We are pleased to announce the completion of a suite of test work focused on permanently storing carbon dioxide in brucite and brucite-rich serpentinized peridotite (“BRSP”) rock. This initial test work builds upon six years of lab and field research performed by FPX...