Leaders of the House Committee on Energy and Commerce last month sent letters to a variety of nuclear sector stakeholders requesting input in preparation for a June 14 hearing titled “Oversight of NRC: Ensuring Efficient and Predictable Nuclear Safety Regulation for a Prosperous America.” (The hearing will be livestreamed at https://energycommerce.house.gov/.)

“We invite you to submit to the committee information and recommendations to improve the licensing review and approval process, as well as the oversight of NRC licensees,” the lawmakers wrote. “We are interested in NRC activities involving the licensing and oversight of today’s operating reactors, as well as the siting, licensing, construction, and oversight of advanced nuclear reactor technologies.” The letter also noted the committee’s interest in “improving NRC efficiency, management of regulatory costs and fees, public health and safety, staff effectiveness and culture, collaboration with the Department of Energy, and international activities.”

Not everyone in the nuclear industry is familiar with a series of 105 historic wall charts displaying detailed illustrations of nuclear reactors and their internal components, but Ronald A. Knief is. Knief, a retired professor of chemical and nuclear engineering at the University of New Mexico and former principal engineer at Sandia National Laboratories, has spent decades collecting these educational items, which were originally published as foldout inserts in Nuclear Engineering International magazine from the 1950s through early 2000s.

When people think of the deployment of advanced nuclear reactors in the United States, they might imagine something far into the future, with countless steps between concept and reality. But those steps are becoming strides, and the finish line is rapidly drawing closer.

It has been said that the nuclear provisions in the Biden administration’s Inflation Reduction Act are strong enough to be stand-alone bills. The IRA contains various tax incentives for nuclear, to the point where it seems that few in Congress are questioning the importance of nuclear energy to the nation’s power grid and climate goals.

Officially established on November 15, 2021, with the signing of the $1.2 trillion Infrastructure Investment and Jobs Act—aka the Bipartisan Infrastructure Law, or BIL—the Department of Energy’s Civil Nuclear Credit Program was designed to give owners/operators of commercial U.S. reactors the opportunity to apply for certification and competitively bid on credits to help support the continued operation of economically troubled units. Finally, the federal government, and not just certain farsighted state governments, would recognize nuclear energy for its important grid reliability and decarbonization attributes.

McMorris Rodgers

The House Energy and Commerce Committee has advanced a bill to the chamber’s floor that, with certain exceptions, would ban the import of low-enriched uranium from Russia into the United States. Introduced in February by the E&C Committee’s chair, Cathy McMorris Rodgers (R., Wash.), the Prohibiting Russian Uranium Imports Act (H.R. 1042) was approved in a (slightly) bipartisan 29–21 vote on May 24.

The legislation would start banning Russian uranium 90 days after its enactment but would also allow the Department of Energy to issue waivers should the DOE determine (1) that there is no alternate source of low-enriched uranium available to keep a U.S. nuclear reactor in operation or (2) that importing Russian uranium is in the national interest.

The Vogtle expansion project’s Unit 3 reactor has attained 100 percent energy output—the first time it has reached its maximum expected output of approximately 1,100 MWe, Georgia Power announced yesterday.

Westinghouse Electric Company, Bechtel, and Polish utility Polskie Elektrownie Jądrowe (PEJ)—the three firms leading the effort to build Poland’s first nuclear power plant—have announced the signing of a new agreement that defines the main principles of cooperation on the project’s design and construction and confirms the implementation of its next major stage.

Serving as the world’s first scalable nuclear power plant, Shippingport Atomic Power Station led the way for today’s nuclear generation fleet. Shippingport was centrally located roughly 25 miles from Pittsburgh, Pa., to provide electrical generation for many end-users. Shippingport also served as an experimental reactor that allowed engineers and designers the ability to test different core designs, and as such, the site housed additional testing equipment otherwise not commonly seen. The primary goal of Shippingport was always to generate electricity; however, its ability to function as an experimental reactor served utilities in further development of scalable nuclear generation.

Today’s atomic clocks are exceptional timepieces that won’t lose or gain a second in 30 billion years. But if you’re looking for even more precision, you’ll be glad to learn that physicists at CERN’s ISOLDE nuclear physics facility have observed the decay of thorium-229 nuclei trapped in a crystalline structure and confirmed the potential for a nuclear clock. CERN announced the news on May 24.