CRC and Bloom Energy to Evaluate 1 GW of Fuel Cell Power With Carbon Capture

California Resources Corporation (CRC) and Bloom Energy have signed a memorandum of understanding to evaluate developing 1 gigawatt or more of solid-oxide fuel cell power generation paired with carbon capture and storage (CCS) across California. The proposed deployments could capture up to 3 million metric tons of CO2 per year for permanent geological sequestration.

The MOU is non-binding. Commercial realization, the companies state, remains subject to negotiating definitive agreements, reaching final investment decisions, and obtaining EPA Class VI underground injection permits — the federal authorization required for wells that permanently store CO2 underground.

What does the agreement actually cover?

The initial evaluation scope spans two project categories. Front-of-the-meter (FTM) installations would operate at utility scale and connect directly to regional storage reservoirs operated by Carbon TerraVault (CTV), CRC's carbon management subsidiary. Behind-the-meter (BTM) projects would deliver on-site power to critical infrastructure across Northern and Central California.

Both categories would sit on CRC's Central Valley footprint. The pairing matters for the technology chain: CTV holds the subsurface CO2 transportation and permanent storage capacity, while Bloom contributes its fuel cell platform together with third-party carbon capture technology.

The structure targets energy-intensive offtake customers seeking firm, baseload power. Named segments include:

• Data center developers
• Industrial facilities
• Municipalities
• Community choice aggregators
• Utilities

The companies frame the demand as driven by state grid reliability mandates and corporate net-zero targets, sectors that need dispatchable clean power rather than intermittent supply.

Why fuel cells change the capture equation

The technological argument behind the partnership rests on exhaust chemistry. Bloom's solid-oxide fuel cells generate electricity without combustion, producing a highly concentrated CO2 exhaust stream compared with conventional fossil combustion.

That concentration carries direct economic consequences. Because the CO2 arrives in a purer stream, the energy penalty and capital expenditure required for downstream post-combustion gas separation drop significantly. Point-source capture has long carried a high economic cost, and the partners argue this configuration lowers the barrier that has stalled similar projects.

Bloom Energy Chief Commercial Officer Aman Joshi said the partnership establishes a scalable model for carbon-neutral baseload generation by addressing that cost of point-source capture directly.

Who holds which asset?

The division of labor is explicit. Bloom supplies generation: scalable solid-oxide fuel cells plus third-party capture technology. CRC supplies geology and logistics: land, subsurface storage capacity, and CO2 transportation infrastructure under Carbon TerraVault.

Francisco Leon, President and CEO of California Resources, framed the pairing as a question of positioning. "California needs more clean, firm, reliable, and affordable power generated here at home," Leon said. "We are uniquely positioned with land, vast subsurface storage, and CO2 transportation expertise."

The claim to uniqueness rests on CTV's network of transport and injection assets across the Central Valley, a region that hosts much of California's existing oil and gas infrastructure — the same pore space and wellbore expertise that CCS developers increasingly seek out.

What does this change for California's power market?

For data center developers, industrial users, and community choice aggregators, the framework offers a route to firm on-site or utility-scale power without the emissions profile of gas peakers. If the 1 GW materializes, it would add dispatchable capacity to a state grid that has leaned heavily on batteries and imports during evening peaks.

For the CCS sector, the project would add a capture pathway distinct from the state's existing pipeline of gas plant retrofits. The 3 million tonne annual target, if reached, would rank among the larger point-source capture volumes proposed in California.

Neither figure is built capacity yet. The announcement sits firmly in the evaluation phase: an MOU, a scope of study, and a set of commercial preconditions. The 1 GW and the 3 million tonnes are ceilings defined by the agreement's stated ambitions, not contracted output.

What happens next?

Three gates decide whether the MOU becomes steel and pipelines. First, the parties must negotiate definitive agreements — binding contracts that convert the evaluation into project commitments. Second, each project must clear a final investment decision, the point at which capital commits.

Third, and most consequent for timing, CRC needs EPA Class VI permits for its underground injection wells. Class VI permitting has moved slowly nationally; applications routinely spend years in review, and California's first-in-the-nation state-level CCS framework is still being finalized. The pace of that regulatory process, more than the engineering, will set the calendar for when — or whether — the first megawatt of this 1 GW runs through a Bloom stack and into a Carbon TerraVault reservoir.