Concept art of the Dow plant in Seadrift, Texas. (Source: X-energy)
The Nuclear Regulatory Commission is providing the opportunity to request a hearing on Dow Chemical Company’s application to construct a 320-MWe nuclear power plant at the company’s Seadrift site in Calhoun, Texas. Long Mott Energy, a wholly owned subsidiary of the Dow Chemical Company, submitted its construction permit application to the NRC in March. It was accepted for review by the agency on May 12.
Concept art of the planned Sizewell C plant on the Suffolk coast, featuring two French-designed EPRs. (Image: Sizewell C)
It’s a move that “brings to an end decades of dithering and delay, with the government backing the builders.” That’s how the U.K. government announced, with alliterative fanfare, its £14.2 billion (about $19.2 billion) investment in Sizewell C, where EDF Energy plans to build two 1,600-MWe EPRs.
Solomon Bairai of Navarro-ATL prepares a Twister Stir Bar sample for analysis at the Hanford Site's 222-S Laboratory. (Photo: DOE)
A new method has received Washington state’s approval for use at the 222-S Laboratory at the Department of Energy’s Hanford Site, improving how experts analyze tank waste and providing more precise data to support safe and efficient cleanup.
Concept art of Rolls-Royce SMR’s reactor design. (Image: Rolls Royce)
Rolls-Royce SMR has emerged as the United Kingdom’s preferred bidder to build the country’s first small modular reactors following a two-year competition, the U.K. government announced June 10. Rolls-Royce SMR expects to build three SMRs with Great British Energy–Nuclear, subject to contracting later this year and regulatory approvals. Great British Energy–Nuclear will “aim to allocate a site later this year and connect projects to the grid in the mid-2030s.”
Figure 1. inDRUM Demonstration facility at Studsvik for simulated waste (left) and a drum being loaded into the container treatment unit (right)
Studsvik AB has completed construction of the new inDRUM Demonstration Facility outside of Nykoping, Sweden. We can now demonstrate how the inDRUM technology will process a wide range of problematic and legacy wastes through the removal of all liquids, organics and other materials, resulting in a stable and reduced volume product that can be disposed of in a suitable repository.
The first of four planned Chinese-made Hualong-1 units at the Zhangzhou nuclear power plant began operation earlier this year. (Photo: China National Nuclear Corporation/Xinhua)
As trade negotiations are in the works between the United States and China, Washington, D.C., has the advantage in semiconductors but nuclear power is a different story, according to a June 9 article in the Hong Kong–based South China Morning Post.
Argonne physicist Michael Kelly loads a superconducting cavity into a large furnace. (Photo: ANL)
Argonne National Laboratory said it has secured just over $10 million from the Department of Energy’s Advanced Research Projects Agency–Energy (ARPA-E) for two research projects investigating the transmutation of spent nuclear fuel into less radioactive substances.
The NWMO has launched a two-year engagement process as it begins plans for a second deep geological repository to manage radioactive waste in Canada. (Photo: NWMO)
The Nuclear Waste Management Organization, which is mandated by law to develop an approach for the long-term care of Canada’s spent nuclear fuel, has begun collecting feedback from Canadians and Indigenous people to help refine its process for selecting a second deep geologic repository site.
Technical advisory committee members in front of a full-scale universal nuclear waste canister prototype developed through ARPA-E’s UPWARDS program. (Photos: Deep Isolation)
At COP28, held in Dubai in 2023, a clear consensus emerged: Nuclear energy must be a cornerstone of the global clean energy transition. With electricity demand projected to soar as we decarbonize not just power but also industry, transport, and heat, the case for new nuclear is compelling. More than 20 countries committed to tripling global nuclear capacity by 2050. In the United States alone, the Department of Energy forecasts that the country’s current nuclear capacity could more than triple, adding 200 GW of new nuclear to the existing 95 GW by mid-century.
The SMR control room simulator in NuScale’s newest E2 Center began operation at George Mason University. (Photo: NuScale /George Mason University)