NuScale Power is pursuing a potential nuclear power contract with the Tennessee Valley Authority that could span six to eight gigawatts [1].

If finalized, the agreement would represent one of the most significant expansions of nuclear energy infrastructure in the U.S., and it could potentially become the largest nuclear contract in the history of the country [1].

The proposed project focuses on the Tennessee Valley Authority service region, primarily located in Tennessee [1]. The scale of the build-out is intended to provide a massive increase in carbon-free baseload power for the region.

NuScale Power is positioning this deal as a pivot away from short-term quarterly financial metrics toward long-term infrastructure growth [1]. The potential capacity of six to eight gigawatts [1] would mark a substantial shift in the deployment of small modular reactor technology at scale.

While the details of the contract remain in the proposal stage, the size of the project suggests a strategic effort to modernize the U.S. energy grid. The Tennessee Valley Authority has a long history of managing federal power assets, and this partnership would integrate NuScale's specific reactor designs into that existing framework [1].

The industry is watching the deal closely because it tests whether next-generation nuclear technology can be deployed in the volumes necessary to meet national energy demands. A contract of this magnitude would provide a blueprint for other regional power authorities considering nuclear alternatives to fossil fuels [1].

The potential contract size could be six to eight gigawatts.

This potential agreement signals a shift toward large-scale deployment of modular nuclear technology to stabilize the U.S. energy grid. If the Tennessee Valley Authority moves forward with a six- to eight-gigawatt commitment, it would validate the commercial viability of NuScale's model and likely accelerate nuclear adoption across other state and federal power utilities seeking to reduce carbon emissions while maintaining baseload reliability.