How Soluna Links Data Centres to Owned Wind Power in Texas
Data centre operators are changing how they secure energy as demand for AI workloads expands.
Soluna Holdings (Soluna) has now stepped further into that shift, acquiring the 150MW Briscoe Wind Farm in West Texas for US$53m and linking generation directly to its data centre estate.
The move reflects a broader rethink across the sector. For years, operators have relied on power purchase agreements – long-term contracts that secure renewable electricity without owning the underlying infrastructure.
Now, with energy markets volatile and consumption rising, that model faces scrutiny as firms look for tighter control over supply.
Soluna’s approach places generation and compute side by side. The Briscoe Wind Farm sits alongside its Project Dorothy campus, creating a single site where land, turbines and data centre infrastructure operate together.
Owning power within the data centre stack
The Briscoe Wind Farm connects to Texas’ main grid and uses GE Vernova turbines to generate electricity. By acquiring the site outright, Soluna moves beyond contractual access to energy and instead embeds generation into its data centre model.
This integration allows the company to balance internal demand with external market opportunities. The wind farm is expected to generate between US$20m and US$24.4m in annual revenue in its first year, depending on electricity prices in Texas, a market known for sharp fluctuations.
For data centre operators, this structure introduces a different level of control. Instead of relying on third-party suppliers, firms can align compute workloads with energy availability on site.
That becomes relevant as high-performance computing and generative AI workloads place continuous strain on power infrastructure.
John Belizaire, CEO of Soluna, positions the acquisition as a strategic foundation for future capacity. "Energy sovereignty is the key durable moat in the AI infrastructure race," he says.
"By owning the Briscoe Wind Farm, we have secured the cornerstone infrastructure needed to build an AI campus with up to 300MW of capacity. This acquisition delivers on our founding vision: building a utility-scale digital infrastructure company powered by its own renewable energy."
In this context, energy sovereignty refers to direct ownership and control of energy assets, reducing reliance on external suppliers and limiting exposure to market volatility. For data centres, where uptime and cost predictability are central, that control becomes part of competitive positioning.
Energy demand reshapes data centre investment
The pressure behind these decisions is visible in spending patterns. Data centre capital expenditure reaches US$770bn in 2025, exceeding upstream oil and gas investment in the same period. That figure reflects how compute infrastructure and energy supply are becoming increasingly linked.
Access to power is now a limiting factor for growth. According to S&P Global, the US data centre sector contracted 50GW of clean energy by the third quarter of 2024, with solar accounting for 29GW and wind for 13GW.
Most of these agreements still follow the power purchase model. However, operators are exploring alternatives that bring infrastructure closer together. Google, for example, has partnered with Intersect Power to place data centres within energy parks backed by US$20bn of renewable assets, with initial operations expected by 2026. Amazon continues to finance more than 500 solar and wind projects globally, maintaining its position as the largest corporate buyer of renewable energy in 2024.
These approaches stop short of full ownership. Soluna’s model highlights that distinction by combining generation and consumption within the same operational footprint. For data centre design, this introduces new considerations, including grid interconnection, onsite generation management and the ability to scale compute in line with energy production.
Project Dorothy expands alongside generation
With the Briscoe acquisition complete, Soluna is turning to expanding its Project Dorothy campus. The company is preparing Dorothy 3, a 300-acre site next to its existing Dorothy 1 and Dorothy 2 facilities. The planned capacity reaches up to 300MW, designed to support high-performance computing and generative AI workloads.
This expansion relies on a hybrid approach. Grid connectivity remains part of the design, but onsite generation from the wind farm provides an additional layer of supply. The timeline for development is not confirmed, yet the direction is clear – integrating energy and compute at scale.
Across its wider portfolio, Soluna reports a pipeline exceeding 4.3GW. This includes Project Kati 1, an 83 MW site that is already energised, and a joint venture with Metrobloks on Project Kati 2, a campus expected to exceed 300MW.
The question is whether this level of vertical integration becomes standard. Owning generation assets requires capital and introduces exposure to energy markets, particularly in regions like Texas where prices fluctuate sharply. At the same time, it offers a route to stabilise long-term operating costs and secure capacity in constrained markets.
Soluna’s position illustrates that trade-off. By acting as both energy producer and data centre operator, the company participates in the same market it depends on. Electricity can be consumed internally or sold into the grid, depending on demand and pricing conditions.
This dual role signals a change in how infrastructure is structured. Data centres are no longer just endpoints for energy consumption. Increasingly, they form part of integrated systems where generation, storage and compute operate together on shared sites.
As AI workloads continue to expand, that integration is likely to influence how new facilities are designed, financed and located, with energy access shaping decisions as much as connectivity or land availability.
