---
title: Meta’s Nuclear Power Play Sets the Standard for AI’s Energy Future
description: Meta secures six point six GW of nuclear power to fuel AI data centres in the US, backing advanced reactors for clean baseload energy and long-term resilience.
author: Darie Nani (Editor-in-Chief)
date: 2026-01-13T15:02:01.000Z
updated: 2026-04-04T14:32:28.725Z
canonical: https://www.sovereignmagazine.com/article/meta-s-nuclear-power-play-sets-the-standard-for-ai-s-energy-future
image: https://cdn.nanimediahouse.com/mr26tqghgmc.jpg
categories: Artificial Intelligence
content_type: Analysis
region: United States
publication: Sovereign Magazine
about:
  - type: Organization
    name: Meta
---

Meta’s agreement to secure up to 6.6 gigawatts of nuclear power by 2035 represents a historic shift in how tech companies approach energy procurement. This deal, the largest corporate nuclear energy purchase in US history, is a direct response to the soaring energy demands of next-generation AI infrastructure. It also marks a turning point for the energy sector, demonstrating how advanced nuclear technologies can provide the reliable, carbon-free power needed to fuel the [AI revolution and its computational demands](https://www.sovereignmagazine.com/article/ai-energy-use-to-more-than-double-electricity-demand-by-2026).

Joel Kaplan, Meta’s Chief Global Affairs Officer, emphasised the significance of this move: “State-of-the-art data centres and AI infrastructure are essential to securing America’s position as a global leader in AI. Nuclear energy will help power Meta’s AI future, strengthen the country’s energy infrastructure, and provide clean, reliable electricity for everyone.”

## The Energy Demands of AI

Artificial intelligence is transforming industries, but its energy requirements are staggering. The International Energy Agency projects that global data centre electricity consumption could more than double from 415 terawatt-hours in 2024 to 945 TWh by 2030, as AI-driven workloads drive the bulk of this growth. In the US alone, data centres consumed 183 TWh in 2024, a figure expected to rise to 426 TWh by 2030. This surge is not just about powering servers. It reflects the computational intensity of AI models, which demand vast, uninterrupted energy supplies.

Meta’s Prometheus supercluster in New Albany, Ohio, exemplifies this challenge. The facility requires a level of energy reliability and scale that traditional grids and renewable sources alone cannot yet provide. Goldman Sachs Research forecasts that global power demand from data centres will increase by 165% by 2030 compared to 2023, with the US accounting for nearly half of this growth. This reality has forced tech companies to rethink their energy strategies, prioritising baseload power sources that can operate 24/7 without interruption. Nuclear energy, with its ability to provide firm, carbon-free electricity, has emerged as the ideal solution.

## A Strategic Approach to Nuclear Energy

Meta’s nuclear procurement strategy is a carefully structured plan to address both immediate and long-term energy needs. The company has partnered with three energy providers: TerraPower, Oklo, and Vistra. This collaboration creates a diversified and resilient energy portfolio.

The agreement with TerraPower, founded by Bill Gates, is the most ambitious. Meta will fund the development of two Natrium reactor units, each capable of generating up to 345 megawatts of firm power. These units can scale to 500 MW for over five hours using integrated molten salt storage. This deal also grants Meta rights to energy from up to six additional Natrium units, totalling 2.8 GW of baseload capacity and an additional 1.2 GW of storage. The first units are expected to come online by 2032, aligning with Meta’s [AI infrastructure expansion plans](https://www.sovereignmagazine.com/article/unveiling-meta-s-ai-breakthrough-complete-model-transparency-achieved).

In Pike County, Ohio, Meta is supporting Oklo’s advanced nuclear technology campus, which could begin operations as early as 2030. This project will deploy Aurora Powerhouse reactors, small modular reactors (SMRs) based on proven fast-reactor designs. These reactors are compact, efficient, and capable of using both fresh and repurposed high-assay low-enriched uranium (HALEU) fuel. With a targeted output of up to 1.2 GW, the campus will feed directly into the PJM grid, one of the largest electricity markets in the US.

For immediate needs, Meta has secured 20-year agreements with Vistra to purchase more than 2.1 GW of energy from existing nuclear plants in Ohio and Pennsylvania. These deals include funding for “uprates,” physical upgrades that will increase the capacity of the Perry, Davis-Besse, and Beaver Valley plants by a total of 433 MW. These upgrades, expected to come online in the early 2030s, will extend the lifespan of these plants while boosting their output.

## The Role of Advanced Nuclear Technologies

Meta’s partnerships with TerraPower and Oklo highlight the critical role of [advanced nuclear technologies](https://www.sovereignmagazine.com/article/microsoft-s-22-billion-uk-investment-could-supercharge-britain-s-advanced-manufacturing-ambit) in meeting the energy demands of the AI era. Unlike traditional nuclear reactors, which rely on water cooling and large-scale infrastructure, advanced reactors like Natrium and Aurora are designed to be smaller, safer, and more flexible.

The Natrium reactor, developed in collaboration with GE Hitachi Nuclear Energy, is a sodium-cooled fast reactor that operates at higher temperatures and lower pressures than conventional reactors. Its integrated molten salt storage system allows it to temporarily boost output, making it ideal for complementing intermittent renewable energy sources. The reactor’s use of HALEU fuel, enriched to higher levels than traditional nuclear fuel, improves efficiency and reduces waste.

Oklo’s Aurora reactor is equally innovative. Designed as a small modular reactor, it can be deployed in compact configurations and is capable of using recycled nuclear fuel. This reduces waste and enhances fuel security, a critical consideration as the US seeks to reduce its reliance on foreign uranium suppliers. The Aurora reactor’s passive safety features, which rely on natural forces rather than human intervention, further distinguish it from traditional nuclear plants.

These advanced reactors are already under construction. TerraPower’s Natrium project in Kemmerer, Wyoming, broke ground in 2024, with nuclear island construction planned for 2026. Oklo’s Aurora reactor is targeting commercial operation by 2027-2028, following groundbreaking at Idaho National Laboratory in 2025.

## Economic and Grid Benefits

Meta’s nuclear deals are not just about securing energy. They also represent a significant economic investment in the US nuclear supply chain. The projects are expected to create thousands of construction jobs and hundreds of long-term operational roles, particularly in Ohio and Pennsylvania. According to a Deloitte report, the nuclear industry in the Southeastern US alone generates nearly $43 billion annually and supports over 152,000 jobs. Meta’s agreements will reinforce this supply chain, addressing challenges such as reliance on foreign uranium suppliers and limited domestic enrichment capacity.

The Department of Energy has invested $2.7 billion to restore American uranium enrichment and support advanced reactor development. Meta’s deals complement these efforts, providing the financial certainty needed to scale domestic nuclear capacity and reduce costs through series production. Additionally, Meta’s commitment to covering the full costs of the energy used by its data centres ensures that consumers do not bear the financial burden of these upgrades. The energy procured through these deals will also feed into the broader grid, supporting regional energy resilience.

## A Blueprint for the Tech Industry

Meta’s nuclear procurement strategy is part of a broader trend among tech giants to secure nuclear energy for their data centres and AI infrastructure. Amazon, Google, and Microsoft have all made significant investments in nuclear energy in recent years. Amazon has invested in X-Energy’s advanced reactors, while Google has partnered with Kairos Power to develop next-generation nuclear technologies. Microsoft, meanwhile, has focused on restarting existing nuclear plants and collaborating with Constellation Energy to secure long-term power purchase agreements.

What sets Meta apart is the scale of its ambition. With 6.6 GW of nuclear capacity secured, Meta has positioned itself as the largest corporate purchaser of nuclear energy in US history. This move is likely to inspire other tech companies to follow suit, accelerating the adoption of nuclear energy as a baseload power source for [AI and cloud computing infrastructure](https://www.sovereignmagazine.com/article/from-bitcoin-to-ai-gold-rush-how-microsoft-s-9-7b-australian-deal-signals-new-era-in-cloud-co).

## Challenges and Opportunities Ahead

While Meta’s nuclear deals are a landmark achievement, they are not without challenges. The US nuclear supply chain, though robust, faces hurdles in scaling to meet the demands of advanced reactor deployment. A TechCrunch report highlights that the nuclear industry struggles with a lack of domestic manufacturing capacity and a shortage of skilled labour. These issues will need to be addressed to ensure the success of projects like Natrium and Aurora.

The regulatory landscape for advanced reactors also remains complex. The Nuclear Regulatory Commission (NRC) is still developing frameworks for [licensing SMRs and other next-generation technologies](https://www.sovereignmagazine.com/article/europe-nuclear-revival-too-little-too-late), which could introduce delays. However, Meta’s partnerships with TerraPower and Oklo, both of which are actively engaged with the NRC, suggest that these challenges are being actively managed.

Despite these obstacles, the opportunities presented by Meta’s nuclear strategy are immense. By securing a reliable, carbon-free energy source, Meta is future-proofing its AI infrastructure while contributing to the broader goals of energy independence and sustainability. As AI continues to reshape industries, the demand for clean, reliable energy will only grow. Meta’s 6.6 GW nuclear bet is a blueprint for how tech companies can meet this demand while driving innovation and economic growth.

## The Future of AI and Energy

Meta’s nuclear energy deals mark a turning point in the relationship between technology and energy. They demonstrate that the future of AI is not just about algorithms and computing power. It is also about securing the energy needed to power these innovations. By embracing advanced nuclear technologies, Meta is setting a new standard for corporate energy procurement, one that prioritises reliability, sustainability, and resilience.

For the US, these deals represent an opportunity to reassert leadership in nuclear energy and reinforce the country’s energy infrastructure. For the tech industry, they signal a shift toward a more diversified and secure energy portfolio. And for the world, they offer a glimpse of how AI and clean energy can coexist, driving progress without compromising the planet. Meta’s nuclear power play is not just a deal. It is a commitment to powering the AI revolution responsibly and sustainably.

## Further Context

**Q: What is baseload power, and why is it critical for data centres?**
Baseload power refers to the minimum amount of continuous electricity required to meet constant demand. Data centres need baseload power because they operate 24/7 and cannot tolerate interruptions or fluctuations in energy supply. Unlike intermittent sources like wind or solar, baseload power ensures a stable and reliable energy supply, which is essential for maintaining uninterrupted operations and preventing costly downtime.

**Q: How do small modular reactors (SMRs) differ from traditional nuclear reactors, and what advantages do they offer?**
Small modular reactors (SMRs) are advanced nuclear reactors with a power capacity of up to 300 MW(e) per unit, about one-third the size of traditional reactors. They are designed to be factory-built, easier to deploy, and feature enhanced safety mechanisms such as passive cooling systems. SMRs offer greater flexibility, lower upfront costs, and the ability to scale capacity by adding units as needed. Their compact size also allows for deployment in locations where large reactors would be impractical.

**Q: What are the main challenges of integrating nuclear power into the electrical grid for large energy users?**
Integrating nuclear power into the grid presents several challenges, including:

**Q: How does nuclear energy compare to renewables for large-scale energy procurement?**
Nuclear energy and renewables serve different roles in large-scale energy procurement:

**Q: What is high-assay low-enriched uranium (HALEU), and why is it significant for advanced nuclear reactors?**
High-assay low-enriched uranium (HALEU) is uranium enriched to between 5% and 20% of the U-235 isotope, compared to the 3-5% used in traditional reactors. HALEU is significant because it enables advanced reactors to achieve higher efficiency, smaller designs, and longer fuel cycles. However, its production is currently limited, and the US relies on foreign suppliers for enrichment. Expanding domestic HALEU production is critical for supporting the deployment of next-generation nuclear technologies.