Nuclear News

The Nuclear Innovation Alliance (NIA), a nonprofit advocating for advanced nuclear, has announced the publication of a new report, Fission Vision: Doubling Nuclear Energy Production to Meet Clean Energy Needs. According to the April 13 announcement, the United States needs a “focused national effort” to develop and deploy advanced nuclear technologies to help meet midcentury climate goals.

Current U.S. climate targets (set by the Biden administration) include a 50–52 percent reduction from 2005 levels in net greenhouse gas pollution by 2030 and a net-zero–emissions economy by 2050.

“Fission Vision answers the question: What is the role advanced nuclear energy could play at a scale and at a pace to help provide safe, reliable, and affordable clean energy?” said Judi Greenwald, NIA’s executive director. “Fission Vision has three objectives: catalyzing a robust U.S. innovation and commercialization ecosystem, ensuring ‘social license’ to operate advanced nuclear energy, and reimagining and integrating advanced nuclear energy with other clean energy sources. If we can achieve these objectives—and we think we can—advanced reactors will play a major role in meeting our climate and energy goals by at least doubling U.S. nuclear energy production by 2050.”

Foster

New and existing nuclear reactors are among our most powerful tools if we hope to make a meaningful contribution to climate change before 2050. We don’t have a lot of time to reduce emissions to avoid catastrophic warming. It is our responsibility to develop a comprehensive response to address our dependence on fossil fuels, promote sustainable energy use, and invest in new energy technologies.

Science and engineering continue to make great strides in energy-­related technologies such as advanced nuclear reactors, long-­term energy storage, fusion energy, and the safe and secure handling of spent nuclear fuel. Using every viable tool to combat climate change will help ensure a safer world for us and for generations to come.

SNC-Lavalin and Moltex Energy are partnering to advance the development and deployment of small modular reactor technology in Canada, the companies announced last week at the Canadian Nuclear Association’s 2022 conference in Ottawa, Ontario. The partnership will support Moltex as it pursues the licensing and construction of its 300-MW Stable Salt Reactor–Wasteburner (SSR-W), a molten salt reactor that uses nuclear waste as fuel.

Steven P. Nesbit
president@ans.org

The April issue of Nuclear News focuses on university programs and the key roles they play in the nuclear technology field. The topic led me to do some reminiscing.

Like many Nuclear News readers, I studied nuclear engineering in college, departing the University of Virginia in 1982 with bachelor’s and master’s degrees in the field. Most of us have fond memories of our college years, for reasons that may or may not relate to academic pursuits. I left the school with many such memories, but also with respect for the knowledge and accomplishments of my professors and an appreciation of the research they conducted. Also, UVA had two reactors, including a 2-megawatt pool reactor that was in use around the clock, five days a week. I had the opportunity to obtain a reactor operating license and work shifts as an operator, which was quite rewarding monetarily and provided practical, hands-on experience with nuclear technology.

The Department of Defense’s Strategic Capabilities Office (SCO) on April 13 released a record of decision (ROD) for Project Pele, a program intended to design and build a mobile microreactor at Idaho National Laboratory. The ROD for Project Pele is based on a final environmental impact statement (EIS) published in February. The designs submitted by the two candidate vendors—BWXT Advanced Technologies and X-energy—both fit the parameters analyzed in the final EIS.

According to the Department of Energy’s Princeton Plasma Physics Laboratory, recent simulations and analysis demonstrate that the design of its flagship fusion facility, the National Spherical Torus Experiment Upgrade (NSTX-U), which is currently under repair, could serve as a model for an economically attractive next-generation fusion pilot plant.

Universities are places where professionals, experts, and students come together to teach and learn, to conduct and disseminate research, and to dream and explore. Universities have a long history of technological innovation and development. It should therefore come as no surprise that institutes of higher education have been an integral part of the recent explosion of innovation within the advanced nuclear reactor community. Universities have not only powered workforce and technology development, but in a number of cases, they have served as the actual birthplaces of today’s advanced reactor designs.

Notwithstanding the snubbing of nuclear in its recently released Green Bond Framework, the Canadian government is showing support for small modular reactors in its 2022 budget plan, which was presented to the House of Commons by the minister of finance, Chrystia Freeland, on April 7.

According to the Canadian Nuclear Association, “This is the first documented government policy that provides explicit financial support for SMRs as a key solution for climate change.”

Connecting nuclear engineers and scientists with space exploration missions has been a focus of the American Nuclear Society’s Aerospace Nuclear Science and Technology Division since its creation in 2008. One of the main ways those connections are made is through the Nuclear and Emerging Technologies for Space (NETS) conference, which the division supports in conjunction with the National Aeronautics and Space Administration.

Research into the high-resolution detection of plutonium mixtures by Purdue University professor Rusi Taleyarkhan and his team was featured on the cover of the February issue of the Journal of Analytical Atomic Spectroscopy, published by the British Royal Society of Chemistry.

The published research focuses on novel hybrid mass-alpha spectroscopy technology. Taleyarkhan and his team applied centrifugally tensioned metastable fluid detector sensor technology to the detection of mixtures of plutonium-239/240. This technology can serve as an alternative to conventional alpha radiation spectroscopy sensors and to mass spectroscopy systems, which can take weeks to deploy and are cost-prohibitive, especially when deployed in low-radiation fields for long periods of time.

Now is such an exciting time to be a nuclear engineering student. We are seeing decades of work culminate in technology that can soon be deployed. The nuclear energy sector is experiencing growing support as more people recognize and accept the role that nuclear power has in decarbonizing our electric grid.

From left: Kalev Kallemets, chief executive officer of Fermi Energia, and James Lauritsen, managing director of Laurentis Energy Partners. (Photo: Fermi Energia)

Laurentis Energy Partners will work with Fermi Energia to support the development of small modular reactors in Estonia, the companies announced yesterday at the 2022 Canadian Nuclear Association Conference being held in Ottawa, Ontario.

A subsidiary of Ontario Power Generation (OPG), Laurentis bills itself as a provider of SMR services throughout the development life cycle, from feasibility and planning through construction, commissioning, and operations. Fermi Energia is an Estonian energy company focused on SMR development and deployment.

What they’re saying: “Building on our owner’s engineer and nuclear management experience, Laurentis is pleased to work with Fermi Energia to provide an opportunity for Estonia to confidently introduce SMRs into their energy mix,” stated Jason Van Wart, vice president of Laurentis.

The Department of Energy announced on April 11 that it will distribute $1 million to three awardees to evaluate newly developed radioisotopes for potential therapeutic use in preclinical and clinical trials. The funding is provided by the DOE Isotope Program, which produces isotopes for use in science, medicine, and industry that would otherwise be unavailable or in short supply.

Risch

Manchin

Sens. Joe Manchin (D., W.Va.) and Jim Risch (R., Idaho) recently introduced the International Nuclear Energy Act of 2022, a measure aimed at developing a strategy to counter the growing influence of Russia and China on the global civil nuclear export market.

Manchin is chairman of the Senate Energy and Natural Resources Committee, and Risch is the ranking member of the Foreign Relations Committee.

Bill basics: The legislation, according to the lawmakers, would:

• Establish an office to coordinate civil nuclear exports strategy, establish financing relationships, promote regulatory harmonization, enhance safeguards and security, promote standardization of licensing framework, and create an export working group.

The Department of Energy has determined that the sale, lease, or transfer of up to 750 kilograms of high-assay low-enriched uranium (HALEU) per calendar year to support the production of molybdenum-99 will not have an adverse material impact on the domestic uranium mining, conversion, or enrichment industry.

From left: Bonnie Jenkins, the U.S. State Department’s undersecretary for arms control and international security, and Jānis Vitenbergs, Latvia’s economics minister. (Photo: U.S. State Department)

The U.S. and Latvian governments announced last week a new partnership under the Biden administration’s Foundational Infrastructure for Responsible Use of Small Modular Reactor Technology (FIRST) program.

Launched in April of last year, the FIRST program is designed to deepen strategic ties, support energy innovation, and advance technical collaboration with partner nations on nuclear energy infrastructure.

The U.S.-Latvia FIRST project, according to the State Department, will draw on expertise from across government, industry, national laboratories, and academia for policy and technical exchanges focused on topics such as workforce development, stakeholder engagement, regulatory development, and familiarization with advanced nuclear technologies—including SMRs—to support Latvia’s energy independence and security and climate priorities. Latvia currently has no nuclear power facilities.

What they’re saying: “We are pleased to be working with Latvia to explore what role advanced nuclear technologies can play in Latvia’s future energy mix,” said Bonnie Jenkins, the State Department’s undersecretary for arms control and international security. “The United States and Latvia share a commitment to energy security, combatting climate change, and nonproliferation. The FIRST program provides a framework for our countries to work together to achieve these goals.

TRISO-X submitted a license application for a high-assay low-enriched uranium (HALEU) fuel fabrication facility to the Nuclear Regulatory Commission on April 6, the day after parent company X-energy announced that TRISO-X had secured a 110-acre site in Oak Ridge, Tenn., for the construction of the facility, which it is aiming to have operating in 2025.

The U.K. government has released a new energy strategy aimed at boosting Britain’s energy independence, stabilizing its soaring energy prices, and accelerating the deployment of new nuclear, wind, solar, and hydrogen to mitigate climate change.

At the same time, the 38-page document, British Energy Security Strategy, calls for near-term support for domestic oil and gas, stating, “Net zero is a smooth transition, not an immediate extinction, for oil and gas.” (The United Kingdom in 2019 became the first of the world’s major economies to embrace a legal obligation to achieve net-zero carbon emissions by 2050.)

Following through with this strategy, the government says, could result in low-carbon sources generating up to 95 percent of British electricity by 2030.

The University of Illinois at Urbana-Champaign formed a partnership with Ultra Safe Nuclear Corporation to deploy an advanced research reactor on campus, based on a microreactor design that improves upon well-established high-temperature, gas-cooled reactor (HTGR) technology. Unlike traditional research reactors, our focus at UIUC is not on a laboratory tool to study radiation interactions with matter, or even on the production of radioisotopes. Instead, we will build a research, education, and training facility intended to help advanced reactor technology become a widely deployable, marketable, economic, safe, and reliable option for a clean energy future. If successful, the USNC-designed Micro Modular Reactor (MMR)^a would operate on UIUC’s campus with the capability to advance critical and enabling technologies required for advanced reactors to realize their full potential, while educating and training the workforce as a key step toward delivering on the technology’s promise. Microreactors can become a transformative distributed energy technology and revolutionize energy infrastructure worldwide.

On April 7, U.S. Sen. John Barrasso (R., Wyo.), ranking member of the Senate Committee on Energy and Natural Resources, introduced the Fueling Our Nuclear Future Act of 2022. The bill would ensure a domestic supply of high-assay low-enriched uranium (HALEU) for advanced nuclear reactors by directing the Department of Energy to prioritize establishing a domestic HALEU enrichment capability and to use enriched uranium held by the DOE and the National Nuclear Security Administration to fuel advanced reactor demonstrations until U.S. commercial enrichment is available. The bill explicitly excludes uranium sourced or processed by any entity owned or controlled by the governments of Russia and China.