Top 10 Advanced Reactor Strategies: Meta’s 6.6 GW Deal with Terra Power & 4 Other Agreements (2024-2026)

Hyperscalers are aggressively securing multi-gigawatt, 24/7 carbon-free power, with nuclear energy emerging as a cornerstone strategy to fuel the immense energy demands of AI data centers. The scale of procurement has moved beyond standard Power Purchase Agreements (PPAs) for renewables to include direct investment in new and existing nuclear assets, as evidenced by major deals from Meta, Google, and Amazon. Meta’s landmark agreement for up to 6.6 GW of nuclear capacity, AWS’s 960 MW PPA with Talen Energy, and Google’s deal to revive an Iowa nuclear plant highlight this pivotal shift. The dominant theme for 2025 is the solidification of nuclear and other firm power sources like geothermal and fuel cells as the primary solution for baseload, carbon-free energy, directly addressing the constant, high-density power requirements of AI infrastructure.

1. Meta’s Multi-Faceted Nuclear Power Agreements (January 2026)

Company: Meta
Capacity: Up to 6.6 GW
Application: Powering AI data centers with existing and advanced nuclear reactors
Source: Meta lines up up to 6.6 GW of nuclear power

2. AWS PPA for Nuclear-Powered Data Center (December 2025)

Company: Amazon Web Services (AWS)
Capacity: 960 MW
Application: 10-year PPA to power a Pennsylvania data center campus
Source: Nuclear Project PPAs

3. Bloom Energy Fuel Cell Installation for Wyoming Data Center (September 2025)

Company: Bloom Energy
Capacity: 900 MW
Application: Onsite, behind-the-meter power for a massive data center
Source: Bloom Energy (BE) Soars 14.5%

4. Google PPA to Revive Iowa Nuclear Plant (November 2025)

Company: Google
Capacity: 615 MW
Application: 25-year PPA to bring the Duane Arnold Energy Center back online
Source: Tech Giants Race To Grab Power for Data Centers

5. Meta’s Behind-the-Meter Natural Gas Plants in Ohio (December 2025)

Company: Meta
Capacity: 400 MW
Application: Two behind-the-meter natural gas plants for reliability at New Albany hub
Source: How AI Labs Are Solving the Power Crisis

6. Fuel Cell Energy & Inuverse Mo U for AI Data Center (July 2025)

Company: Fuel Cell Energy, Inuverse
Capacity: 100 MW
Application: Potential deployment of fuel cells for an AI data center in South Korea
Source: Fuel Cell Energy, Inuverse to explore 100 MW fuel cell deployment

7. Google’s First PPA for Gen-IV Nuclear Reactor (October 2025)

Company: Google
Capacity: 50 MWe
Application: First US utility PPA for a Generation-IV advanced reactor (Kairos Power Hermes 2)
Source: Google Commits to First U.S. Gas-Fired Power Plant

8. Google’s Geothermal PPA for Taiwan Data Centers (November 2025)

Company: Google
Capacity: 10 MW
Application: PPA for 24/7 geothermal power for data centers in Taiwan
Source: Powering Data Centers | Megawatts to Megabytes

9. Microsoft’s Landmark 20-Year Nuclear PPA (September 2024)

Company: Microsoft
Capacity: Undisclosed, but supports launch of Crane Clean Energy Center
Application: Long-term PPA with Constellation for 24/7 nuclear power
Source: Constellation to Launch Crane Clean Energy Center

10. Meta’s Market-Shaping RFP for New Nuclear Capacity (December 2024)

Company: Meta
Capacity: 1 GW to 4 GW
Application: Request for Proposals (RFP) for new nuclear capacity to power future data centers
Source: Are data centers going nuclear?

Table: Top 10 Hyperscaler Power Procurement Deals (2024-2026)

Hyperscaler Power Adoption: Meta and Google Lead with 5+ Nuclear Deals

The adoption of advanced and firm power sources is no longer theoretical; it is a core component of hyperscaler expansion strategy. The diversity of applications signifies a sophisticated, portfolio-based approach to energy procurement. We are seeing a clear move away from a singular reliance on intermittent renewables toward a model that ensures 24/7 carbon-free energy. For instance, Meta’s strategy is multi-layered, combining a 2, 609 MW PPA for existing nuclear plants with a long-term agreement for eight new advanced reactors from Terra Power. This is complemented by a 400 MW behind-the-meter natural gas investment for reliability, indicating that while the goal is clean energy, operational uptime remains paramount. Similarly, Google is engaging across the spectrum, reviving a shuttered plant in Iowa, investing in a first-of-a-kind Gen-IV reactor, and pursuing geothermal in Taiwan. This demonstrates a willingness to act as a catalyst for both preserving existing clean assets and de-risking nascent technologies.

Tech Giants Dominate Clean Energy Deals

This chart shows that hyperscalers like Meta and Google are top buyers of clean energy, directly supporting the section’s theme of their leadership in power adoption.

(Source: CarbonCredits.com)

USA Dominates Nuclear Deals, Led by Ohio and Pennsylvania Projects

The geographic concentration of these projects is heavily weighted toward the United States, particularly in regions with established energy infrastructure and supportive regulatory environments. Ohio and Pennsylvania are clear hotspots, with Meta’s 6.6 GW nuclear agreements and AWS’s 960 MW PPA directly tied to data center buildouts in these states. The revival of Iowa’s Duane Arnold Energy Center by Google further underscores the trend of anchoring new compute capacity near existing or revivable nuclear assets. Wyoming is emerging as a leader in behind-the-meter generation, highlighted by the 900 MW Bloom Energy fuel cell deployment, which leverages the state’s favorable industrial policies. While the US is the clear leader, international projects like Google’s geothermal PPA in Taiwan and the Fuel Cell Energy Mo U in South Korea signal that this is a global strategy, adapted to regional resource availability.

US Dominates Hyperscaler Clean Energy Procurement

The chart quantifies carbon-free energy contracts, visually confirming the section’s point that the USA is the dominant location for these hyperscaler deals.

(Source: S&P Global)

6.6 GW Deal Shows Advanced Reactor Commercial Viability for Meta

These announcements provide a clear picture of technology maturity and commercial readiness. Traditional, large-scale nuclear power is fully commercial, with hyperscalers like AWS and Google signing long-term PPAs that provide immediate, stable, carbon-free power and financial certainty for plant operators. The most significant development is the commercial acceleration of Advanced Reactors. Meta’s agreement for eight Terra Power Natrium reactors and Google’s PPA for a Kairos Power molten-salt reactor are not R&D projects; they are commercial contracts that signal hyperscaler demand is now the primary driver for bringing these technologies to market. On a parallel track, behind-the-meter technologies like Solid Oxide Fuel Cells (SOFCs) are scaling dramatically. The 900 MW Bloom Energy project demonstrates that fuel cells have graduated from niche backup power to a viable primary power source for utility-scale data centers, offering grid independence and high reliability.

Google’s 50 MWe Kairos Reactor PPA Signals New Tech Acceleration

The critical strategic expectation for the next 18 months is that hyperscalers will increasingly move from being passive energy consumers to active partners in energy generation development, directly shaping the supply mix to meet their unique needs. If a hyperscaler can secure a decade of power for a gigawatt-scale AI cluster through a single advanced reactor PPA, watch for them to replicate this model across multiple regions to de-risk their global operations. The current procurement activities suggest the following signals are gaining traction:

• Meta’s January 2026 agreements with Terra Power and Vistra for 6.6 GW of capacity establish a powerful precedent for blending long-term advanced nuclear development with immediate PPAs from existing plants to manage risk and timelines.
• The signing of a PPA for a pre-commercial technology, as seen with Google’s support for the 50 MWe Kairos Power Gen-IV reactor in October 2025, demonstrates a willingness to fund demonstration projects to accelerate their path to market.
• The scale of behind-the-meter solutions is rapidly increasing, with the 900 MW Bloom Energy SOFC project in September 2025 indicating that on-site generation is now a credible alternative to grid connection for the largest data centers.
• Diversification into non-nuclear firm power is also accelerating where geographically feasible, evidenced by Google’s 10 MW geothermal PPA in Taiwan, showing a pragmatic, resource-driven approach to achieving 24/7 carbon-free energy goals.

Data Centers Shift to ‘Bring Your Own Grid’

This chart illustrates the strategic shift toward self-sufficient power models, matching the section’s argument that hyperscalers are becoming active energy generation partners.

(Source: LinkedIn)

The questions your competitors are already asking

This report covers one angle of the hyperscaler race to secure 24/7 carbon-free power for AI. The questions that matter most depend on your work.

• Which hyperscalers are gaining or losing ground in the race to secure firm, carbon-free power for AI data centers?
• What is the outlook for advanced nuclear reactor deployment for data centers by 2030?
• How does behind-the-meter nuclear compare to utility-scale PPAs for data center decarbonization?
• Who are the key suppliers of advanced reactors, geothermal systems, and fuel cells for the hyperscaler market?

This report does not answer these. Enki Brief Pro does.

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