Nuclear News

Westinghouse Electric Company has announced the signing of a long-term technology license agreement with Swedish engineering services firm Studsvik to develop a metals recycling and treatment facility at Westinghouse’s Springfields site.

Located near Preston, Lancashire, in northwestern England, Springfields is the United Kingdom’s only site for nuclear fuel manufacturing, supplying all its advanced gas-cooled reactor fuel. According to Westinghouse, Springfields fuel is responsible for about 32 percent of Britain’s low-carbon electricity generation. In addition, the site exports other nuclear fuel products to customers around the globe.

Craig Piercy
cpiercy@ans.org

It’s always the first question asked. So, what is your approach? You have options.

You could go the “Yucca Mountain is the law of the land” route. But you’ll soon run into an immutable political truth. Nevada’s early presidential caucuses make it highly unlikely that any candidate would ever take a favorable position on Yucca unless it enjoyed commensurate support in the state. Not convinced? Nevada Gov. Stephen Sisolak signed a bill in August that replaces their closed caucus system with a primary during the first week in February, thereby putting the state in competition with Iowa and New Hampshire to be the “first primary” of the 2024 election. Face it: While you weren’t looking, Nevada secured its consent rights over Yucca Mountain; it’s just written in a different part of the law.

You could also double down on reprocessing/recycling and argue that we need some sort of Manhattan Project. But that requires convincing Congress that it’s a good idea for the government to build large, first-of-a-kind, multibillion-dollar fuel cycle facilities, the economics of which will be based on the estimated price of uranium (or thorium?) some number of decades from now. Good luck with that. As much as a grand solution to the fuel cycle may appeal to our engineering instincts, the funding simply isn’t there—there are no checks left in Washington’s checkbook.

Mobile unmanned systems, also known as MUS, encompass a range of robotic devices, including drones, ground vehicles, crawlers, and submersibles. They are used for a wide range of industrial and defense applications to automate operations and assist humans or completely remove human workers from hazardous conditions. Robotics are ubiquitous in industrial manufacturing. Military robots are routinely employed in combat support applications, such as reconnaissance, inspection, explosive ordnance disposal, and transportation. Drones are used in many industries for security and monitoring, to conduct aerial inspections or surveys, and to capture digital twins. Wind and solar farms use MUS technologies for day-to-day operations and maintenance.

The question of what to do with the radioactive waste has been raised frequently for both fission and fusion. In the 1970s, fusion adopted the land-based disposal option, primarily based on the Nuclear Regulatory Commission’s decision to regulate all radioactive wastes as only a disposal issue, following the fission guidelines. In the early 2000s, members of the Advanced Research Innovation and Evaluation Study (ARIES) national team became increasingly aware of the high amount of mildly radioactive materials that 1-GWe fusion power plants will generate, compared with the current line of fission reactors. The main concern is that such a sizable inventory of mostly tritiated radioactive materials would tend to rapidly fill U.S. repositories—a serious issue that was overlooked in early fusion studies¹ that could influence the public acceptability of fusion energy and will certainly become more significant in the immediate future if left unaddressed, as fusion moves toward commercialization.

Whether commercial demand for high-assay low-enriched uranium (HALEU) fuel ultimately falls at the high or low end of divergent forecasts, one thing is certain: the United States is not ready to meet demand, because it currently has no domestic HALEU enrichment capacity. But conversations happening now could help build the commercial HALEU enrichment infrastructure needed to support advanced reactor deployments. At the 2022 American Nuclear Society Winter Meeting, representatives from three potential HALEU enrichers, the government, and industry met to discuss their timelines and challenges during “Got Fuel? Progress Toward Establishing a Domestic US HALEU Supply,” a November 15 executive session cosponsored by the Nuclear Nonproliferation Policy Division and the Fuel Cycle and Waste Management Division.

At a moment of global crisis, in a windowless squash court below the football stadium bleachers at the University of Chicago, a group of scientists changed the world forever.

On December 2, 1942, a team of researchers led by Enrico Fermi, an Italian refugee, successfully achieved the world’s first human-­created, self-­sustaining nuclear chain reaction. Racing to beat Nazi Germany to the creation of an atomic weapon, the team of researchers, working as part of the Manhattan Project, split uranium atoms contained within a large graphite pile—Chicago Pile-­1, the first nuclear reactor ever built.

On the eve of the 80th anniversary of the first controlled nuclear chain reaction, Nuclear Newswire is back with the second of three prepared #ThrowbackThursday posts of CP-1 coverage from past issues of Nuclear News.

On November 17, we surveyed the events of 1942 leading up to the construction of Chicago Pile-1, an assemblage of graphite bricks and uranium “pseudospheres” used to achieve and control a self-sustaining fission reaction on December 2, 1942, inside a squash court at the University of Chicago’s Stagg Field.

Today we’ll pick up where we left off, as construction of CP-1 began on November 16, 1942.

Aecon-Wachs, the U.S. division of Aecon Nuclear, has been tapped to support the Department of Energy’s goal of repurposing the unfinished Mixed Oxide Fuel Fabrication Facility at the Savannah River Site (SRS) in South Carolina. Known as Building 226-F, the facility is being transitioned into the Savannah River Plutonium Processing Facility (SRPPF) to produce plutonium pits for the nation’s stockpile of nuclear weapons.

Finnish energy companies Fortum and Helen Oy are initiating a study to explore collaboration on nuclear power projects, with particular emphasis on small modular reactors, the firms jointly announced last week, adding the caveat that “any future decisions on cooperation and investments will be made at a later stage.”

During a recent weeklong trip to Southeast Asia aimed at bolstering U.S. economic and security ties in the region, Vice President Kamala Harris announced the launch of nuclear energy partnerships with Thailand and the Philippines.

Currently, neither country enjoys the benefits of nuclear power. Both rely primarily on some mix of petroleum, natural gas, and coal for their energy needs.

Jesus Zamora

Regardless of the specific field you work in or how your daily tasks are performed, digital technology does not go unnoticed, and the environmental remediation field is no exception. Digital technology can be defined as electronic tools, services, or devices that create, store, transmit, and manage data. As technology evolves, so do the ways in which it can be incorporated into remediation activities.

Adequate incorporation of these technologies can greatly improve both workflow and productivity while enhancing the quality and maintaining the integrity of data. My team and I have been able to connect radiological instruments to computers wirelessly, collect millions of radiological measurements, track the approximate location of these measurements, save measurements automatically in a database, and access them at will.

Westinghouse Electric Company and Finnish energy company Fortum have jointly announced the signing of a long-term partnership to develop, license, and supply VVER-440 fuel to Finland’s two-unit Loviisa nuclear power plant.

Experimentation on the world’s first molten salt reactor to potentially power aircraft was already underway in November 1954, being carried out by the U.S. Air Force. Oak Ridge National Laboratory was the scene for the power-dense, high-temperature reactor experiment known as the Aircraft Reactor Experiment (ARE).

The scale and duration of a national campaign to transport spent nuclear fuel (SNF) from commercial nuclear power plants around the United States would be unprecedented. A meticulous level of planning that considers many elements is needed to inspire public confidence and support.

Hunt

U.K. chancellor of the exchequer Jeremy Hunt last week assuaged any concerns that Britain’s nuclear energy advocates might have been harboring regarding the new government’s support for the proposed Sizewell C plant. (The United Kingdom is on its third prime minister since July, when Boris Johnson’s government granted EDF Energy its long-awaited development consent order for the new nuclear build project.)

What he said: In his November 17 Autumn Statement, while noting the United Kingdom’s status as “a global leader in renewable energy,” Hunt added, “We need to go further, with a major acceleration of home-grown technologies like offshore wind, carbon capture, and storage, and, above all, nuclear. This will deliver new jobs, industries, and export opportunities and secure the clean, affordable energy we need to power our future economy and reach net zero."

Advanced reactors and small modular reactors with strikingly different coolants and sizes offer an array of different benefits, but when it comes to fuel cycle issues, including spent fuel and waste, they have a lot in common with conventional light water reactors. Two reports released within the last week—a National Academies of Sciences, Engineering, and Medicine (NASEM) consensus committee report two years in the making and a Department of Energy study released by Argonne National Laboratory—address the timely topic of advanced reactor fuel cycle issues. While the NASEM committee ventured to define research and infrastructure needs to support the entire nuclear power fuel cycle, inclusive of new technologies, for decades to come, the DOE report compares the front- and back-end fuel cycle metrics of three reactor designs (from NuScale Power, TerraPower, and X-energy) that have been selected for DOE cost-share–funded demonstrations within this decade. Together, these reports provide assurance that the fuel cycle needs of a fleet of new reactors can be met and point to near-term research and planning needs.

Pacific Gas & Electric’s two-unit Diablo Canyon plant—California’s lone operating nuclear power facility—has been deemed eligible for the initial round of funding from the Civil Nuclear Credit (CNC) Program, the Department of Energy announced yesterday.

The decision was welcomed by a nuclear community disappointed by last Friday’s news that the DOE had rejected Holtec International’s CNC application for the recently closed Palisades nuclear plant in Michigan, despite support for the effort from Gov. Gretchen Whitmer.

Nuclear energy is no longer on the fringes of the international climate conversation. At COP27, the United Nations climate change conference held in Sharm el-Sheikh, Egypt, from November 6 to 18, pronuclear advocates were everywhere—and they were talking to everyone. They populated the International Atomic Energy Agency’s #Atoms4Climate pavilion, the first-ever nuclear pavilion in the 27-year history of the negotiations. Echoing such strong representation, the final statement issued by the conference used language that included nuclear power.

Taking waste into outer space would require quite large vehicles, like the Saturn 5 rocket shown here carrying the Apollo 14 crew to the moon. A huge fireball forms underneath the rocket . . . hmm, would that be wise? (Source: NASA)

Nuclear waste disposal presents a frustrating problem far beyond its actual danger. No one has ever been harmed by commercial nuclear waste, and no one is likely to ever be harmed.

But we do have to find a final resting place for nuclear waste as it decays away back to the levels of the ore from which it came.

There are several types of nuclear waste: low-­level waste (LLW), intermediate-­level waste (ILW), transuranic waste (TRU; referring only to bomb waste without a lot of ­cesium-­137 or strontium-­90), high-­level waste (HLW; also only bomb waste), and spent nuclear fuel (SNF; from commercial power plants only). In the United States, TRU waste, HLW, and SNF require deep geologic disposal by law.

Canada’s Bruce Power, operator of the eight-unit Bruce nuclear plant in Kincardine, Ontario, has announced a “made-in-Ontario solution” to the net-zero challenges faced by industries: allowing new incremental nuclear output to be accredited for an avoided emissions benefit.