John Hill, deputy director for science and technology at BNL, with Ruqaiyah Patel, deputy director of UKRI North America, at a recent reception held by UKRI's North America office to mark the funding of the EIC. (Photo: BNL)
The U.S. Department of Energy is constructing the Electron-Ion Collider (EIC) at Brookhaven National Laboratory to explore the boundaries of nuclear physics—both for the sake of science and to support diverse applications, including in nuclear medicine, radiation safety, and nuclear energy. The project, already supported by international collaborators in 40 countries, just secured a significant commitment from the United Kingdom.
Waste drums at the Winfrith site's treated radwaste storage facility. (Photo: NWS)
More than 1,000 drums of low-level radioactive waste in the United Kingdom have been safely disposed of earlier than expected. The project was completed through the collaborative work of Nuclear Waste Services (NWS), Nuclear Restoration Services (NRS), and Nuclear Transport Solutions (NTS).
Urenco UK’s Capenhurst enrichment site, which received a grant in July 2023 to prepare for HALEU enrichment. (Photo: Urenco UK)
The United Kingdom’s Department for Energy Security and Net Zero announced plans on January 7 to invest £300 million (about $383 million) to build a high-assay low-enriched uranium (HALEU) enrichment facility in northwest England. The goal? To “end Russia’s reign as the only commercial producer of HALEU.” Britain is now the first European country to declare that it will begin HALEU enrichment in a bid for supply chain security.
The Pile Fuel Cladding Silo on the Sellafield site in West Cumbria, England. (Photo: Sellafield Ltd.)
After decades of planning and weeks of preparation and checks, the first batch of legacy waste has been retrieved from the Pile Fuel Cladding Silo at the Sellafield nuclear site in West Cumbria, England. According to Sellafield Ltd., the site license company, a state-of-the-art robotic arm was used to reach into the silo and, for the first time, remove and repackage the waste for longer-term storage.
These retrievals mark a significant achievement in progress toward the cleanup and decommissioning of one of the most hazardous buildings on the site, according to Sellafield Ltd., which made the announcement on August 16.
Watch a video about the Pile Fuel Cladding Silo and Sellafield’s waste retrieval operations here.
The DOE-EM–Sandia team and Sellafield representatives pose with Spot Robot at the Sellafield Engineering and Maintenance Centre of Excellence. (Photo: DOE)
Robotics experts from Sandia National Laboratories and representatives from the Department of Energy Office of Environmental Management’s Technology Development Office recently visited the Sellafield nuclear site in England to discuss how robotics, artificial intelligence, and other emerging tools can be developed and used in nuclear cleanup operations.
Concept art showing a geological disposal facility with tunnels and vaults in deep underground rock, under the seabed. (Image: NWS)
Nuclear Waste Services, the United Kingdom’s radioactive waste management organization, launched in January 2022, has begun a wide range of studies to evaluate sites that could be suitable to host a geological disposal facility (GDF).
The ministers representing their respective nations as the statement on civil nuclear fuel cooperation was announced were (from left) Jonathan Wilkinson, minister of natural resources of Canada; Yasutoshi Nishimura, Japan’s minister of economy, trade, and industry; Jennifer Granholm, U.S. energy secretary; Grant Shapps, U.K. energy security secretary; and Agnes Pannier-Runacher, French minister for energy transition.
A civil nuclear fuel security agreement between the five nuclear leaders of the G7—announced on April 16 on the sidelines of the G7 Ministers’ Meeting on Climate, Energy and Environment in Sapporo, Japan—establishes cooperation between Canada, France, Japan, the United Kingdom, and the United States to flatten Russia’s influence in the global nuclear fuel supply chain.
In a global market with different national regulations, on-site testing of power plant components can be complex. Thanks to smart glasses, remote testing should become easier.
March 29, 2023, 9:30AMNuclear NewsChristoph Gatzen and Simon Lemin VR glasses from manufacturer RealWear.
The challenges of climate change are bringing nuclear energy back into focus. Even in Germany, which decided on a general nuclear phaseout in 2011 as a response to the Fukushima disaster that year, nuclear energy is again being discussed as a bridging technology. Compared with fossil fuels, nuclear saves considerable greenhouse gases. However, for a holistic view of CO2 emissions from power plants, the procurement, maintenance, and repair of plant components must also be considered. At the very least, the CO2 emissions caused by the high costs of testing and maintaining a nuclear power plant can be reduced.
A rendering of Last Energy's nuclear power plant. (Image: Last Energy)
Startup company Last Energy has announced power purchase agreements for 34 units of its 20-MWe nuclear power plants with four industrial partners in Poland and the United Kingdom. In total, according to the company, the deals represent more than $18.9 billion in electricity sales.
Two British Class 88 locomotives transport a nuclear waste flask wagon across Great Britain. (Photos: NTS)
Since its formation in 2005, the United Kingdom’s Nuclear Decommissioning Authority (NDA) has been tasked with ensuring that the U.K.’s nuclear legacy sites are decommissioned and cleaned up safely, securely, cost-effectively, and in ways that protect the people and the environment.
The first silo emptying machine installed in the Magnox Swarf Storage Silo at the U.K. Sellafield site. (Photo: Gov.UK)
The second of three machines that will be used to safely remove waste from the Magnox Swarf Storage Silo at the Sellafield nuclear site in the United Kingdom has successfully been assembled, it was announced by Sellafield Ltd., a subsidiary of the U.K. government’s Nuclear Decommissioning Authority.
A video showing how waste is removed and the Magnox Swarf Storage Silo prepared for decommissioning has been posted to YouTube and can be found here.
The Spherical Tokamak for Energy Production, shown here in an artist's rendition, is a government-backed prototype fusion energy plant planned for operation in the U.K. in the early 2040s. (Image: UKAEA)
The U.K. Atomic Energy Authority (UKAEA) and Tokamak Energy announced on October 10 that they signed a framework agreement to collaborate on developing spherical tokamaks for power production. This news is a complement to last week’s announcement from the U.K. government that the West Burton A coal-fired power plant site in Nottinghamshire has been selected as the future home of STEP (Spherical Tokamak for Energy Production), the U.K.’s planned prototype fusion energy plant. The government is providing £220 million (about $250 million) of funding for the first phase of STEP, which will see the UKAEA produce a concept design by 2024.
The Spherical Tokamak for Energy Production (STEP), shown here, is a government-backed prototype fusion energy plant planned for operation in the U.K. in the early 2040s. (Image: UKAEA)
Future fusion energy facilities will continue to be regulated by the Environment Agency (EA) and Health & Safety Executive (HSE), the U.K. government announced June 20, and existing law on nuclear regulations will be amended to exclude fusion energy facilities from nuclear fission regulatory and licensing requirements. The move was announced by the United Kingdom Atomic Energy Authority (UKAEA) with the expectation it would provide “clarity to developers of prototype/demonstration fusion facilities currently being planned to support rapid commercialization.”