Can Project Matador become America’s flagship AI power grid? Inside Fermi’s new 200 MW deal with Xcel Energy

Fermi America (NASDAQ: FRMI, LSE: FRMI) has signed a definitive Electric Service Agreement with Southwestern Public Service Company, a subsidiary of Xcel Energy (NASDAQ: XEL), to deliver up to 200 megawatts of electricity to its Project Matador campus in Amarillo, Texas. The move signals a critical acceleration in the rollout of Fermi’s 11-gigawatt next-generation private grid designed to serve artificial intelligence and high-density computing loads.

The initial tranche of 86 megawatts will be delivered starting January 2026, with infrastructure scaled up over time to hit the full 200-megawatt capacity. The agreement positions Xcel Energy as a key utility partner for Fermi’s ambitious plans to integrate natural gas, nuclear, solar, and battery energy storage into one of the most complex and AI-focused energy hubs in the country.

Fermi America’s co-founder and CEO Toby Neugebauer described the deal as a milestone that underscores the feasibility of delivering large-scale, reliable energy for artificial intelligence on time and on budget. The Chief Power Officer Larry Kellerman said the agreement reflects how Fermi is translating intent into execution while securing strategic utility partners to deliver resilient energy infrastructure.

The electricity will be delivered through a high-voltage 115-kilovolt transmission system managed by Southwestern Public Service Company. Adrian Rodriguez, President of Xcel Energy Texas–New Mexico, noted that the utility is committed to meeting rising energy demand in the Texas Panhandle and viewed this partnership with Fermi America as part of that broader commitment.

How critical is this power agreement to the success of Project Matador?

For a campus aiming to deliver 11 gigawatts of integrated energy for hyperscaler AI applications, locking in the first 200 megawatts via a regulated utility is a foundational step. The electric service agreement removes a key source of execution risk, ensuring that part of Fermi’s computing infrastructure can run on stable power even before the in-house generation assets come online.

The phased delivery aligns with Fermi’s modular buildout approach. The Project Matador campus is designed to scale over multiple years, with energy capacity added in stages to match the requirements of AI tenants and infrastructure providers. That includes colocated natural gas turbines, AP1000 nuclear reactors, solar fields, and megawatt-scale battery systems—all connected behind the meter on a proprietary grid.

By partnering early with a utility capable of bridging initial energy needs, Fermi America reduces its dependency on construction lead times for new generation. This also demonstrates to institutional investors and AI infrastructure partners that power reliability will not be a bottleneck in the early stages of deployment.

What is the bigger picture behind Project Matador’s 11 GW ambition?

Project Matador is not just a data center campus. It is a prototype for what Fermi America calls a next-generation “HyperGrid” purpose-built for AI workloads, capable of managing multi-gigawatt scale energy demands, redundancy, and low-latency delivery at the grid edge.

Co-founded by former U.S. Energy Secretary Rick Perry and Quantum Energy veteran Toby Neugebauer, Fermi America is pursuing a hybrid energy architecture that integrates four Westinghouse AP1000 nuclear units, six gigawatts of combined-cycle natural gas generation, solar panels, grid access via utilities, and large-scale battery systems. The idea is to create a diversified, resilient energy platform that can guarantee uptime and bandwidth for artificial intelligence and high-performance computing.

This strategy anticipates the energy intensiveness of future AI models, which will require far more than just a reliable grid. They will require flexible dispatch, real-time redundancy, and energy cost predictability over decades. Fermi’s approach offers all of these in one integrated framework—and aims to become a flagship model for national AI infrastructure buildouts.

How is Fermi balancing power density with environmental and water conservation concerns?

Fermi America’s recently announced Memorandum of Understanding with MVM EGI Zrt., a hybrid cooling specialist, sheds light on how the company plans to minimize environmental impact. The two firms will co-develop a series of 450-foot hybrid dry–wet cooling towers for the Project Matador campus. These towers are engineered to reduce evaporative water loss by over 80 percent compared to conventional wet cooling systems.

The towers will serve both the natural gas and nuclear generation fleets, offering indirect hybrid cooling that recycles and circulates water through closed-loop systems. Fermi has also committed to evaluating the use of recycled and reclaimed water sources, as well as underground reservoirs and solar-covered retention ponds to reduce evaporation and protect the local Ogallala Aquifer.

Construction of the first cooling tower is scheduled for January 2026, aligning with the start of grid electricity delivery from Southwestern Public Service Company. The entire cooling system is expected to be completed by 2034 in line with the phased activation of Fermi’s energy generation units.

What are analysts saying about Fermi America’s roadmap and investor interest?

Analysts tracking the power and infrastructure sectors view Fermi America’s Project Matador as a high-risk but potentially transformative investment in the energy-tech convergence space. The firm’s listing on both Nasdaq and the London Stock Exchange signals cross-border ambitions and opens up a diversified investor base.

The 200-megawatt deal with Xcel Energy was interpreted by market watchers as a confidence-building move that increases the credibility of Fermi’s construction and power delivery timelines. Institutional sentiment remains cautiously optimistic, with investors watching closely for updates on nuclear permitting, EPC partnerships, and offtake agreements with hyperscale tenants.

In terms of stock performance, shares of Fermi America have traded in a narrow range in recent sessions, but the announcement of this definitive electric service agreement could provide upside momentum if followed by further execution milestones. No significant institutional flows have been reported since the ESA disclosure, but analysts expect that may change as the project reaches shovel-ready status on additional fronts.

How are traditional utilities like Xcel Energy adapting to the needs of AI infrastructure?

For Xcel Energy, this deal represents more than just a commercial customer win. It highlights how AI and digital infrastructure firms are becoming major growth drivers for regulated utilities in select U.S. geographies. The Texas Panhandle, with its relatively uncongested grid and supportive regulatory environment, is emerging as a high-potential corridor for such large-load customers.

Xcel Energy’s ability to commit 200 megawatts through its Southwestern Public Service Company subsidiary also reflects long-term strategic planning and transmission readiness. The high-voltage 115-kilovolt system being leveraged for this agreement ensures that grid interconnectivity will not become a bottleneck for the computing infrastructure relying on the new power.

Utilities across the United States are now under pressure to design tariff structures, grid enhancements, and partnership models tailored for energy-intensive AI deployments. This deal may become a reference point for future utility–AI partnerships in the decade ahead.

What should stakeholders expect between now and 2026?

The January 2026 milestone will be crucial for Fermi America. Not only will it mark the beginning of 86 megawatts of utility power flowing into the Matador campus, but it will also coincide with the start of construction on the hybrid cooling tower system. Together, these developments will represent Fermi’s shift from concept to partial operations.

In parallel, observers will be monitoring final engineering plans for the nuclear and natural gas systems, financing disclosures, and potential contracts with chipmakers or AI cloud providers looking for hyper-dense compute power in a stable regulatory environment.

If Fermi delivers on these timelines, it could quickly move from being a speculative venture to one of the most strategically important private grid operators in the AI era.

What are the key takeaways from Fermi America’s power deal with Xcel Energy?

• Fermi America’s ESA with Southwestern Public Service Company secures 200 megawatts of power for Project Matador starting in 2026
• Initial capacity delivery of 86 megawatts will begin in January 2026 through 115-kilovolt high-voltage transmission
• The agreement de-risks early phases of the 11-gigawatt campus aimed at hyperscale AI infrastructure
• Fermi also signed an MOU with MVM EGI to develop water-conserving hybrid cooling towers for gas and nuclear units
• First cooling tower construction is scheduled to begin in January 2026, with full deployment targeted by 2034
• Investors and analysts view this milestone as a positive signal of project execution and institutional alignment
• Xcel Energy sees the deal as part of broader growth in AI-related energy demand in the Texas Panhandle
• Utility participation reflects shifting industry strategies to serve data infrastructure clients at multi-gigawatt scale
• Future milestones include additional power agreements, generation construction, and tenant signings for AI workloads
• Fermi’s roadmap continues to attract interest as a prototype for energy-integrated artificial intelligence campuses