Energy Infrastructure

Meta and Oklo Plan 1.2 GW Ohio Nuclear Campus as AI Power Demand Reshapes Big Tech Energy Deals

Meta is prepaying for power from a 1.2-gigawatt nuclear campus that doesn’t exist yet. The agreement with Oklo signals that intermittent renewables can’t meet AI’s round-the-clock demand.

📅 September 2026 ⏱️ 5 min read 📂 Energy / Technology
Davis-Besse Nuclear Power Station in Oak Harbor, Ohio, with reactor containment and cooling infrastructure
Ohio’s existing nuclear infrastructure provides the regulatory and grid context for Oklo’s proposed 1.2 GW campus in Pike County. This photograph shows the Davis-Besse Nuclear Power Station in Oak Harbor, Ohio — not the proposed Oklo site. Photo: Ktr101 via Wikimedia Commons — CC BY-SA 4.0.

If you invest in solar or wind projects hoping to land a major tech contract, the ground under that bet has shifted. Meta Platforms is now funding a 1.2-gigawatt nuclear power campus specifically because intermittent renewable power can’t meet what AI data centers actually need.

Meta and nuclear technology company Oklo announced their agreement in January 2026 to develop a nuclear power campus in Pike County, Ohio, scalable up to 1.2 gigawatts. Oklo says pre-construction and site characterization work is slated to begin in 2026, with the first phase targeted to come online as early as 2030, and the full 1.2-gigawatt capacity reached by 2034.

The project uses Oklo’s compact Aurora reactor design rather than traditional large-scale plants, and Meta is providing upfront funding to help move the project forward faster than Oklo could on its own. For related context on how AI workloads are reshaping energy demand, see Karmactive’s coverage of data center energy demand.

1.2 GW
Target capacity
Scalable nuclear power campus
2026
Pre-construction
Site characterization and preliminary work
2030
First phase online
Targeted earliest delivery date
2034
Full capacity
Incremental expansion to 1.2 GW

The agreement’s structure distinguishes it from traditional power purchase agreements

Under a standard PPA, a buyer commits to purchase power from an existing or under-construction facility. Meta’s arrangement with Oklo commits funding before construction begins, providing capital that Oklo can use to advance site characterization and preliminary engineering. This reduces the development risk that typically slows advanced nuclear projects.

The US Nuclear Regulatory Commission licensing framework for advanced reactors remains a key variable. The first phase is targeted for 2030, with full capacity reached by 2034. For energy investors, the deal provides a template for how large technology loads can be served without waiting for utility-scale generation and transmission projects to clear regulatory and interconnection processes.

For related Karmactive coverage on how technology companies are reshaping energy procurement, see our analysis of AI grid costs and ratepayer exposure.

Baseload vs Intermittent Power for AI Data Centers

Capacity factor measures how consistently a power source delivers its rated capacity. AI data centers require continuous power 24 hours a day, seven days a week.

Nuclear (baseload) 92%
92%
Natural Gas (baseload) 85%
85%
Wind + Storage 40%
40%
Solar + Storage 35%
35%

Source: US Energy Information Administration, Oklo corporate filings. Capacity factors are indicative averages.

The prepayment mechanism allows Oklo to build generation capacity specifically dedicated to Meta’s load

AI data centers require continuous power 24 hours a day, seven days a week. Nuclear and natural gas operate as baseload sources with capacity factors above 85%. Solar and wind with storage deliver lower effective capacity factors because storage capacity is finite and generation depends on weather conditions.

Meta’s decision to fund nuclear capacity directly reflects the need for a power source that doesn’t vary with sunlight or wind speed. The prepayment mechanism allows Oklo to build generation capacity specifically dedicated to Meta’s data center load, bypassing the queue for grid interconnection. The project aligns with Oklo’s broader advanced reactor licensing pathway and the company’s collaboration with Idaho National Laboratory.

Meta-Oklo Nuclear Campus: Development Timeline

The project moves from agreement through pre-construction and phased power delivery across two decades.

January 2026
Agreement Announced
Meta and Oklo announce agreement for 1.2 GW nuclear power campus in Pike County, Ohio. Meta provides prepayment mechanism and development funding.
2026
Pre-Construction and Site Characterization
Oklo begins pre-construction activities and site characterization work for the Aurora powerhouse deployment on 206 acres in Pike County.
As early as 2030
First Phase Online
Initial phase of nuclear capacity targeted to come online, supplying power to Meta’s regional data centers including its AI supercluster in New Albany.
2034
Full 1.2 GW Capacity
Project expands incrementally to deliver full target capacity of 1.2 gigawatts using multiple Aurora powerhouse units.

The 2030 timeline places the project among the earliest commercial deployments of advanced nuclear technology

Oklo’s Aurora design uses liquid metal cooling and compact modular construction, distinguishing it from conventional light-water reactors. The incremental expansion model — starting with a first phase and scaling to 1.2 GW by 2034 — allows capacity to be added as Meta’s data center load grows.

For developers considering nuclear-adjacent projects, the key variables are reactor siting, transmission access, and the availability of skilled construction labor in the region. Ohio’s location within the PJM interconnection and its strong transmission network position it as a strategic hub. For more on how data center demand is reshaping grid planning, see Karmactive’s coverage of data center energy demand and grid costs.

Meta-Oklo Nuclear Agreement: Questions Answered

Why is Meta funding a nuclear project instead of buying from the grid? +
AI data centers require continuous, high-volume power. The public grid has interconnection queues and capacity constraints that create uncertainty for large loads. Direct funding of new generation provides dedicated capacity on a predictable timeline.
What reactor technology is Oklo using? +
Oklo’s Aurora powerhouse design is a compact advanced reactor rather than a traditional large-scale nuclear plant. The design uses liquid metal cooling and allows for incremental deployment and scaling. Each Aurora unit has a maximum capacity of 75 MWe.
What does “prepaying for power” mean? +
Meta provides upfront funding to Oklo to accelerate project development. In return, Meta receives a mechanism to purchase power from the completed facility. The prepayment reduces Oklo’s financing risk and speeds construction. Oklo will use the funds to secure nuclear fuel and advance Phase 1 of the project.
How does this affect solar and wind developers? +
The agreement signals that tech companies seeking 24/7 power are willing to fund baseload generation directly. Solar and wind projects without storage or firm capacity arrangements are less competitive for AI data center contracts.
Where is the project located? +
The project is planned for 206 acres in Pike County, Ohio, on land formerly owned by the US Department of Energy. The land purchase was facilitated in part by the Southern Ohio Diversification Initiative (SODI).

Where is tech energy capital going next?

Nuclear zoning, transmission access, and reactor site partnerships are now part of the data center site selection calculus.

Read Our Data Center Energy Guide

Rahul Somvanshi

Rahul, possessing a profound background in the creative industry, illuminates the unspoken, often confronting revelations and unpleasant subjects, navigating their complexities with a discerning eye. He perpetually questions, explores, and unveils the multifaceted impacts of change and transformation in our global landscape. As an experienced filmmaker and writer, he intricately delves into the realms of sustainability, design, flora and fauna, health, science and technology, mobility, and space, ceaselessly investigating the practical applications and transformative potentials of burgeoning developments.

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