Blue Energy and GE Vernova Advance Hybrid Power Project in Texas

Blue Energy and GE Vernova Hitachi Nuclear Energy have advanced their partnership to develop an integrated power generation facility in Victoria, Texas. The project combines gas turbine capacity with small modular reactor technology to supply electricity to a data centre operation.

The facility will initially draw 1 GW of power from two GE Vernova 7HA.02 gas turbines. A subsequent phase will add up to 1.5 GW through five BWRX-300 small modular reactors, subject to a final investment decision in 2027.

Engineering and Licensing Progress

The newly announced agreement moves the project into advanced engineering design, licensing, and safety analysis stages. The collaboration leverages the standardised, modular design of the BWRX-300 to support schedule predictability and cost management.

Blue Energy's approach emphasises off-site fabrication and super modules assembly to reduce on-site construction complexity. The company describes this methodology as the "Blue Way", positioning it as a departure from traditional large-reactor nuclear construction models.

Supply Chain and Execution Strategy

The integrated approach aims to enhance project delivery certainty through innovative logistics and prefabrication techniques. By combining proven gas turbine technology with advanced SMR design, the partners intend to demonstrate a repeatable model for hybrid power generation.

Blue Energy CEO Jake Jurewicz stated the collaboration represents a shift toward making nuclear energy a "financeable, repeatable product" with reduced timelines and costs. GE Vernova's Power segment CEO Eric Gray emphasised the importance of scalable, integrated solutions to meet rising electricity demand.

Broader Context

The first BWRX-300 unit is currently under construction at Ontario Power Generation's Darlington site in Canada, with completion anticipated by the end of the decade. The Texas project represents an early commercial application of the BWRX-300 design in a hybrid generation context.

Advanced Reactor Demonstration Program participants announce project progress

TerraPower and X-energy, the two primary participants in the Department of Energy's Advanced Reactor Demonstration Program, have released announcements regarding their efforts to develop and deploy advanced commercial-scale reactors. Both companies are advancing distinct technological approaches within the federal initiative designed to accelerate the commercialization of next-generation nuclear systems.

The Advanced Reactor Demonstration Program represents a significant commitment to supporting private-sector development of innovative reactor designs beyond conventional light-water reactor technology. By backing multiple technology pathways, the program aims to establish a diverse portfolio of advanced reactor options for the U.S. energy market.

TerraPower's participation in the program reflects ongoing industry momentum toward commercializing advanced reactor concepts. The company's project represents one of the key demonstration efforts expected to inform the viability and economics of next-generation reactor deployment at commercial scale.

Progress announcements from both companies underscore continued investment and technical advancement in the advanced reactor sector. These updates provide insight into the development trajectory of projects that could reshape the nuclear industry's capacity to deliver flexible, scalable power generation solutions.

The parallel advancement of multiple advanced reactor designs through the demonstration program supports the broader objective of establishing a competitive market for innovative nuclear technologies. Success in these initiatives could influence future investment decisions and regulatory frameworks governing advanced reactor deployment in the United States.

  • TerraPower and X-energy are the primary participants in the Department of Energy's Advanced Reactor Demonstration Program
  • Both companies are developing commercial-scale advanced reactor projects
  • The program supports multiple technology pathways for next-generation nuclear systems
  • Project progress announcements reflect continued technical and financial advancement in the sector

The nuclear supply chain doesn't end when a reactor shuts down.

The nuclear supply chain doesn't end when a reactor shuts down.

Finland has reached another major milestone in its spent nuclear fuel programme.

The Finnish Radiation and Nuclear Safety Authority (STUK - Säteilyturvakeskus) has issued a positive safety assessment for Posiva's deep geological repository at Olkiluoto — the world's first industrial-scale final disposal facility for spent nuclear fuel.

For the supply chain, this is much more than a licensing milestone.

It demonstrates that the nuclear industry creates demand far beyond reactor construction and operation.

A geological repository relies on decades of engineering, manufacturing and specialist services, including:

  • underground civil construction
  • copper and steel canister manufacturing
  • bentonite materials and handling systems
  • heavy lifting and remote handling equipment
  • monitoring and instrumentation
  • inspection, maintenance and long-term operational support

As more countries develop long-term spent fuel management strategies, this part of the nuclear supply chain is likely to become increasingly important.

At NucFinder, we believe the future nuclear supply chain includes new build, operations, decommissioning and waste management.

Because every stage of the nuclear lifecycle creates opportunities for specialised suppliers.