SMR AI Data Center Deals, Oracle’s 1 GW SMR Project, Switch’s 12 GW Oklo Agreement, and 10+ Major PPAs (2023 to 2026)
SMR Commercial Projects, Oracle’s 1 GW Plan Signals Broad Hyperscaler Adoption
Hyperscalers shifted from peripheral interest in nuclear power before 2024 to pursuing direct, large-scale procurement and integration commitments, a strategic pivot driven by the unsustainable power demands of artificial intelligence. This change marks a transition from viewing nuclear energy as a theoretical option to treating it as a core component of future infrastructure planning, with tech companies now acting as key financial and commercial enablers for the next generation of nuclear reactors.
- Prior to 2024, tech company engagement with nuclear power was characterized by cautious exploration, typically involving smaller power purchase agreements for electricity from existing plants or co-location studies. The initiatives were fragmented and did not represent a systemic shift in energy procurement strategy.
- The market’s inflection point arrived in September 2024 when Oracle announced it was designing a data center to be powered directly by three Small Modular Reactors (SMRs). This move signaled a significant strategic evolution, moving beyond simple power purchasing to the direct integration of nuclear generation assets into data center design, aiming for grid independence and unparalleled reliability.
- Following Oracle’s move, the market accelerated with a series of landmark agreements in 2025 and 2026 that validated the trend. These included Meta’s deals to unlock up to 6.6 GW of nuclear capacity, Amazon’s $50 billion partnership to deploy 960 MW of SMRs with X-energy, and Google’s 615 MW PPA that facilitated the restart of a previously decommissioned nuclear plant.
- This rapid succession of multi-gigawatt commitments demonstrates that securing clean, baseload power is no longer an ESG-driven preference but a critical business imperative for supporting AI-driven growth. The scale and structure of these deals indicate that tech companies are now willing to underwrite the development of new nuclear assets to secure their energy future.
Oracle 10+ Nuclear-for-AI Partnerships, From PPAs to Direct SMR Integration (2023 to 2026)
Tech companies are establishing a new, dedicated market for nuclear power by forging diverse partnership models that extend beyond traditional energy procurement. The industry has progressed from simple offtake agreements with existing nuclear plants to funding the development of advanced reactor technologies and designing fully integrated, nuclear-powered data center campuses. This proactive engagement provides the revenue certainty needed to finance and construct capital-intensive nuclear projects.
- The most common entry point remains the Power Purchase Agreement (PPA) with operators of existing nuclear fleets. For example, in October 2025, Meta signed a 20-year, 1, 121 MW agreement with Constellation Energy, demonstrating the value of securing large blocks of carbon-free power from established, reliable assets.
- A more strategic partnership model involves using long-term offtake commitments to enable new projects or restart idled ones. Google’s 25-year PPA with Next Era Energy for 615 MW from the Duane Arnold Energy Center was the critical factor that made restarting the previously decommissioned plant economically viable.
- The most advanced form of collaboration involves direct partnerships with reactor developers to build new SMRs specifically for data centers. Amazon’s September 2025 agreement with X-energy, KHNP, and Doosan Enerbility to deploy 960 MW by 2039, and Oracle’s plan to integrate three SMRs, exemplify this forward-looking approach to secure dedicated power.
- The sheer scale of these partnerships is redefining the market. The master power agreement between advanced nuclear firm Oklo and data center developer Switch, announced in December 2024, outlines a plan to potentially deploy up to 12 GW of advanced reactors, representing one of the largest commitments to date.
Table: Major Nuclear Power Partnerships for Data Centers (2023-2026)
| Partner / Project | Time Frame | Details and Strategic Purpose | Source |
|---|---|---|---|
| Switch and Oklo | Dec 2024 | 20-year master power agreement to potentially supply up to 12 GW of power to Switch’s data center campuses using Oklo’s Aurora SMRs, representing a massive-scale commitment to advanced nuclear. | Utility Dive |
| Meta and Multiple Partners | Jan 2026 | Landmark agreements with Vistra, Terra Power, and Oklo to potentially unlock up to 6.6 GW of new and existing nuclear capacity, including 1.2 GW with Oklo for future data centers in Southern Ohio. | Meta Newsroom |
| Google and Next Era Energy | Oct 2025 | A 25-year PPA for 615 MW of power from the restarted Duane Arnold nuclear plant in Iowa. Google’s commitment was the financial cornerstone for the plant’s revival. | Next Era Energy |
| Amazon and X-energy / KHNP / Doosan | Sep 2025 | A $50 billion partnership to deploy 960 MW of SMR capacity by 2039, with the explicit goal of providing carbon-free baseload power for Amazon’s AI data centers. | Carbon Credits |
| Oracle and Undisclosed SMR Provider | Sep 2024 | Announced the design of a data center to be directly powered by three co-located SMRs, targeting over 1 GW of capacity to operate independently of the traditional grid. | CNBC |
| Standard Power and Nu Scale Power | Oct 2023 | Procurement plan for 24 of Nu Scale’s 77 MWe SMR modules to generate nearly 2 GW (1, 848 MW) of clean power for two data center sites in Ohio and Pennsylvania. | Data Center Dynamics |
US Dominance, Oracle’s SMR Strategy Concentrates AI Power Infrastructure in North America
The United States has emerged as the unequivocal center for the development of nuclear-powered data centers, with nearly all significant projects and partnerships announced between 2023 and 2026 located in North America. This geographic concentration is the result of a powerful convergence of factors: the physical location of the world’s largest data center fleets, a mature (though complex) regulatory framework for nuclear energy, and robust federal financial incentives.
Meta Commits to 6.6 GW Nuclear Power
This infographic is a direct visual representation of a key data point mentioned in the section’s table, specifically Meta’s 6.6 GW nuclear power commitment.
(Source: LinkedIn)
- Between 2021 and 2023, discussions around SMRs for industrial use were global but lacked commercial urgency. After 2024, the focus decisively shifted to the U.S. as hyperscalers like Oracle, Amazon, Microsoft, and Google began executing energy strategies tied to their massive domestic infrastructure footprints.
- Key projects are clustered in states with established nuclear expertise and supportive policies. Amazon’s co-location project with Talen Energy is in Pennsylvania, Google’s PPA supports a plant in Iowa, Meta’s development agreement with Oklo targets Southern Ohio, and Standard Power’s planned SMRs are in Ohio and Pennsylvania.
- The Inflation Reduction Act (IRA) has been a critical accelerant, offering production and investment tax credits that improve the economic viability of new and existing nuclear projects. These incentives make the U.S. a more attractive location for capital-intensive nuclear investments compared to other regions.
- While some international activity exists, such as Westinghouse’s agreement to construct AP 300 SMRs in the UK, these projects are not yet directly tied to specific hyperscale data center offtakers. The U.S. remains the only region where tech companies are actively underwriting and integrating nuclear power at a gigawatt scale.
SMR Technology, Oracle’s 1 GW Plan Advances Tech from R&D to Commercial Scale
While no data center is yet powered by a Small Modular Reactor, the wave of procurement commitments and development partnerships between 2024 and 2026 has successfully transitioned the technology from a conceptual R&D phase to a tangible commercialization pathway. By providing clear demand signals and offtake agreements, tech giants like Oracle are effectively underwriting the costly and lengthy process of bringing first-of-a-kind (FOAK) reactor designs to market.
Explainer: Small Modular Reactor (SMR) Technology
The section heading is “SMR Technology,” and this diagram provides a direct, technical explanation of the reactor type being discussed, making it a perfect match.
(Source: Introl)
- In the period from 2021 to 2023, the SMR market was defined by design certifications and the significant challenges of FOAK projects, highlighted by the cancellation of the Nu Scale-UAMPS project due to rising costs. The technology lacked a committed, large-scale customer base.
- Beginning in 2024, the dynamic shifted from technology-push to market-pull. Oracle’s decision to design a data center around SMRs, followed by similar moves from Amazon and Meta, created a bankable demand profile that developers could take to investors and regulators.
- The strategy acknowledges the long lead times, with the first SMR-powered data centers not expected to be operational until approximately 2030. However, the multi-year PPAs and funding agreements signed today are the critical catalysts needed to finance the five-to-seven-year process of development, licensing, and construction.
- A multi-pronged approach to technology adoption is evident. Some companies pursue co-location with existing plants as a near-term bridge strategy, others procure SMR designs that have completed regulatory reviews, while firms like Google provide early-stage funding for multiple advanced reactor designs, including those from Terra Power, to create future offtake options.
SWOT Analysis, Oracle Nuclear SMR Strategy Risks and Opportunities
The strategic pivot to SMRs offers hyperscale companies a definitive solution to their escalating energy and sustainability challenges, but this opportunity is balanced by the significant financial, regulatory, and execution risks inherent in nuclear energy projects. The period from 2024 to 2026 clarified both the scale of the opportunity and the magnitude of the obstacles, shifting the risk-reward calculation from theoretical to concrete.
- The primary strength is the ability to secure a long-term, predictable supply of 24/7 carbon-free baseload power, decoupling future growth from the constraints of volatile energy markets and congested power grids.
- The main weakness is the exposure to the high costs and lengthy timelines of FOAK nuclear projects, which have historically been susceptible to budget overruns and delays.
- The opportunity is to create a powerful competitive advantage by building a self-sufficient, resilient, and sustainable infrastructure backbone for the AI era, while leveraging federal incentives to mitigate costs.
- The greatest threat is execution failure and the potential for being locked out of the market as competitors secure the limited initial supply of SMR capacity and experienced nuclear construction partners.
Table: SWOT Analysis for SMR Adoption by Data Centers
| SWOT Category | 2021 – 2023 | 2024 – 2026 | What Changed / Validated |
|---|---|---|---|
| Strength | Hyperscalers possessed strong balance sheets and expressed public commitments to 100% renewable energy goals. | Companies like Oracle and Amazon began leveraging their financial power to secure multi-gigawatt, long-term nuclear power agreements, ensuring energy supply for decades. | The strategy evolved from passive purchasing of renewable energy credits to active, direct investment in securing dedicated, carbon-free baseload power, creating a durable competitive advantage. |
| Weakness | Growing dependency on intermittent renewables and increasingly strained regional power grids created an operational risk for 24/7 data center operations. | Committing to SMRs introduces exposure to high FOAK project costs ($98-$180/MWh) and complex, multi-year NRC licensing and construction schedules. | The risk profile shifted from grid volatility and intermittency to project execution risk. Companies are trading a known, growing problem for a high-stakes, long-term solution. |
| Opportunity | Potential to use clean energy to enhance brand reputation and meet corporate sustainability goals. | The ability to bypass grid constraints entirely, build massive AI data centers in new locations, and lock in predictable energy costs for decades, supported by IRA tax credits. | The exponential power demand of AI transformed nuclear energy from an ESG initiative into a core business necessity for enabling future growth and ensuring operational stability. |
| Threat | Regulatory hurdles, negative public perception of nuclear energy, and long project development timelines were seen as major deterrents. | The threat landscape now includes intense competition. As firms like Meta and Switch sign large-scale agreements, the risk of being locked out of limited initial SMR capacity becomes a primary concern. | The primary threat is no longer just whether a nuclear project can be built, but whether a competitor will secure the limited supply of viable projects and expert partners first. |
$50 B Amazon SMR Deal, Oracle Must Secure Nuclear Partners in 2026 or Risk Delays
For 2026, the single most critical action for Oracle is to formalize its SMR partnership by announcing a specific reactor vendor and project location, and subsequently begin the pre-licensing engagement with the Nuclear Regulatory Commission. Its competitors are moving aggressively to secure the finite pool of experienced nuclear developers, engineers, and prime sites, creating a time-sensitive window for action before the best options are claimed.
Data Center Power Demand Projected to Surge
This chart shows the accelerating power demand that is driving the competitive urgency for Oracle to secure energy partners, as described in the section.
(Source: POWER Magazine)
- If Oracle announces a definitive partnership and site selection by the end of 2026, it will validate its leadership position and likely trigger an accelerated wave of similar commitments from other large industrial and tech players who are currently in a “wait and see” mode. This would signal that the market for direct nuclear integration is viable.
- Watch for formal filings with the NRC as the next key milestone. A submitted application, even for a construction permit, represents a significant financial and strategic commitment, moving the project from a design concept to a tangible development with a formal regulatory timeline.
- A potential scenario is that other hyperscalers, such as Microsoft for its planned 5 GW “Stargate” supercomputer, could move to secure capacity from the same few SMR vendors that Oracle is likely evaluating, creating a competitive squeeze for limited manufacturing slots and engineering talent. Delay could result in being pushed to the back of a decade-long queue.
The questions your competitors are already asking
This report covers one angle of SMRs powering the AI cloud. The questions that matter most depend on your work.
- What is actually happening with Oracle’s 1 GW SMR project since the announcement?
- Which SMR developers are gaining or losing ground in the hyperscaler data center market?
- What is the outlook for SMR deployment in hyperscaler data centers by 2030?
- How do SMRs compare to grid-scale renewables for providing baseload power to AI data centers?
This report does not answer these. Enki Brief Pro does.
Your question, your angle, your framework. SWOT, PESTL, scenario modelling. The same niche depth, built around the decision your work actually depends on.
Run your first brief in Enki Brief Pro
Experience In-Depth, Real-Time Analysis
For just $200/year (not $200/hour). Stop wasting time with alternatives:
- Consultancies take weeks and cost thousands.
- ChatGPT and Perplexity lack depth.
- Googling wastes hours with scattered results.
Enki delivers fresh, evidence-based insights covering your market, your customers, and your competitors.
Trusted by Fortune 500 teams. Market-specific intelligence.
Explore Your Market →One-week free trial. Cancel anytime.
Related Articles
If you found this article helpful, you might also enjoy these related articles that dive deeper into similar topics and provide further insights.
- E-Methanol Market Analysis: Growth, Confidence, and Market Reality(2023-2025)
- Battery Storage Market Analysis: Growth, Confidence, and Market Reality(2023-2025)
- Climeworks 2025: DAC Market Analysis & Future Outlook
- Carbon Engineering & DAC Market Trends 2025: Analysis
- Climeworks- From Breakout Growth to Operational Crossroads
Erhan Eren
Erhan Eren is the CEO and Co-Founder of Enki, a commercial intelligence platform for emerging technologies and infrastructure projects, backed by Equinor, Techstars, and NVIDIA. He spent almost a decade in oil and gas, first at Baker Hughes leading market intelligence, strategy, and engineering teams, then at AI startup Maana, where he spearheaded commercial strategy to acquire net new accounts including Shell, SLB, and Saudi Aramco. It was across these roles, watching teams stitch together executive briefings from scattered PDFs and Google searches, that the idea for Enki was born. Erhan holds a BS in Aeronautical Engineering from Istanbul Technical University and an MS in Mechanical and Aerospace Engineering from Illinois Institute of Technology. He has spent over 20 years at the intersection of energy, strategy, and technology, and built Enki to give professionals the clarity they need without the analyst-grade budget or timeline.

