Frontier Buyers Sign $11.7 Million Carbon Removal Deal

The agreement funds carbon mineralization technology to remove over 20,000 tons of CO2 by 2031.

Updated on Oct. 15, 2026 in Environmental

Isometric editorial illustration of porous volcanic peridotite rock with crystalline structures, representing the process of mineralizing captured carbon into solid stone.
Frontier buyers finalized an $11.7 million deal with 44.01 to remove 20,932 tons of CO2 through in-situ carbon mineralization technology. AI Illustration. Upload story photo >

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Frontier buyers have finalized an $11.7 million agreement with 44.01 to remove 20,932 tons of CO2. The project utilizes in-situ mineralization technology to convert carbon dioxide into solid rock.

Why it matters

The investment supports the transition of carbon mineralization from pilot demonstrations to continuous commercial operations. It aims to provide critical data on cost and technical scalability for the broader carbon removal industry.

The mineralization process requires one to three years to convert CO2, which is injected into underground peridotite formations. 44.01 tracks CO2 movement using injection measurements, monitoring wells, and geophysical sensors.

The players

Frontier

Frontier is an advanced market commitment to accelerate the development of carbon removal technologies.

44.01

44.01 is a climate technology firm that develops in-situ mineralization methods to permanently store carbon dioxide as mineral rock.

The details

44.01 technology has been demonstrated in Oman and the United Arab Emirates. The current agreement mandates data sharing regarding operational findings to assess how industrial emissions can be effectively stored in reactive rock formations.

Timeline

  1. 2028-2031 is the scheduled window for the removal of 20,932 tons of CO2.

The Big Picture

This project follows a pattern established by the peridotite-based carbon mineralization research in Oman. By moving into continuous commercial operations, the agreement shifts the field from theoretical demonstration to industrial-scale application.

The technology could impact future industrial climate strategies by utilizing reactive rock formations for permanent carbon storage. Experts estimate that such formations could potentially support up to 5 billion tons of CO2 storage annually on a global scale.

The takeaway

Carbon mineralization represents a shift toward permanent, geological-based storage of industrial emissions. This agreement provides the necessary operational data to test whether such solutions can be deployed at scale near major industrial hubs.

Further reading

Learn more about the latest innovations in Environmental research.

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