A look inside the TFTR plasma vessel. Photo: DOE

The Tokamak Fusion Test Reactor (TFTR) at Princeton University and the Fuel Cycle Facility (FCF) (now known as the Fuel Conditioning Facility) at Idaho National Laboratory have been designated as ANS Nuclear Historic Landmarks. The official awarding of the honors will occur during the 2020 ANS Virtual Winter Meeting, which begins November 16.

The TFTR received the award for demonstrating significant fusion energy production and tritium technologies for future nuclear fusion power plants and for the first detailed exploration of magnetically confined deuterium-tritium (D-T) fusion plasmas.

INL’s FCF and its Experimental Breeder Reactor II (EBR-II) were honored for demonstrating on-site recycling of used nuclear fuel back into a nuclear reactor.

Director General Rafael Mariano Grossi delivering his opening statement to the IAEA Board of Governors. Photo: D. Calma/IAEA

Rafael Mariano Grossi, director general of the International Atomic Energy Agency, delivered a statement on September 14 to the agency’s Board of Governors during a meeting in Vienna, Austria.

Grossi briefed Member States on nuclear verification and monitoring in Iran. He explained that he had met with President Rouhani during a visit to Iran and that they had reached agreement on the resolution of the safeguards implementation issues raised by the IAEA.

The inspection desk in use at Sizewell A.

A piece of British nuclear history may be coming to a movie theatre (or streaming service) near you. The United Kingdom’s Nuclear Decommissioning Authority (NDA) sold, at auction, a reactor in-core inspection desk to an Oxford-based film studio known to have been involved with productions such as World War Z, Iron Man 2, and Harry Potter and the Deathly Hallows.

The inspection desk, which was used to remotely check conditions deep inside the gas-cooled reactors at Sizewell A nuclear power plant in Suffolk, England, received a high bid of £10,200 (about $13,000), according to a September 7 press notice from Magnox Ltd., the NDA company responsible for the cleanup of the U.K.’s former Magnox reactors. The desk was last used in 2005, just before the site stopped generating electricity.

Radiation has benefited mankind in many ways, including its use as an energy source and an indispensable tool in medicine. Since the turn of the 20th century, society has sought ways to harness its potential, while at the same time recognizing that radiological exposures need to be carefully controlled. Out of these efforts, and the work of many dedicated professionals, the principles of justification, optimization, and limitation have emerged as guiding concepts.

Justification means that the use of radiation, from any radiation source, must do more good than harm. The concept of optimization calls for the use of radiation at a level that is as low as reasonably achievable (ALARA). Dose constraints, or limitation, are meant to assist in reaching optimization and protection against harm by setting recommended numerical levels of radiation exposure from a particular source or sources. Together, these three principles form the bedrock of the international radiation protection system that drives decision-­making and supports societal confidence that radiation is being used in a responsible manner.

Hanford’s largest groundwater treatment plant, the 200 West Pump and Treat Facility, removes tons of chemical and radioactive contaminants from more than 2 billion gallons of groundwater each year. Photo: DOE/OEM

Fiscal year 2020 marks the sixth consecutive year that the Hanford Site, in southeastern Washington State, has treated more than 2 billion gallons of groundwater to remove contamination from decades of past operations to produce plutonium for the U.S. nuclear weapons program.

The goal this fiscal year, which ends September 30, is to treat at least 2.4 billion gallons, the Department of Energy reported on September 8.

Unit 5 at the Tianwan nuclear plant. Photo: CNNC

Unit 5 at the Tianwan nuclear power plant completed its full-power continuous operation assessment on September 8, meeting the conditions for commercial operation, China National Nuclear Corporation reported. The domestically designed ACPR-1000 pressurized water reactor will become CNNC’s 22nd reactor to provide power to China’s electric grid, raising the CNNC fleet’s installed capacity from 19.112 million kilowatts to 20.230 million, according to the company.

Tianwan-5 construction officially commenced on December 27, 2015, with the pouring of safety-related concrete. China’s National Nuclear Safety Administration issued a 40-year operating license for the unit on July 7 of this year, and two days later CNNC announced that first fuel loading had been completed. The reactor achieved initial criticality on July 27 and connected to the grid on August 8. Once commercial operation of the unit has begun, Tianwan will boast five operating reactors.

Ontario’s Darlington nuclear power plant. Photo: OPG

The latest phase of the Darlington nuclear power plant’s refurbishment project began last week with the start of the defueling of Unit 3, according to Ontario Power Generation (OPG). Originally scheduled to begin in May this year, Unit 3’s refurbishment was postponed due to the COVID-19 pandemic.

Located in Clarington, Ontario, Canada, the Darlington plant houses four 878-MWe CANDU pressurized heavy-water reactors, all of which entered commercial operation in the early 1990s. The 10-year refurbishment project—which was 10 years in the planning—commenced in earnest in October 2016, when Unit 2 was taken off line (NN, Dec. 2016, pg. 45). The refurbished Unit 2 was returned to service in early June, and in late July Unit 3 was shut down and disconnected from the grid in preparation for its refurbishment.

China is on track to overtake the United States in nuclear power capacity by 2026, according to GlobalData, a U.K.-based research and analytics company.

More than 160 GW of nuclear capacity will likely be added globally between 2020 and 2030, some 66 percent of which is anticipated to take place in China, India, and Russia, the company reported on September 9. China alone is set to account for more than 50 percent (83 GW) of the new capacity, followed by India with 8.9 percent (14.5 GW) and Russia with 6.4 percent (10.5 GW). GlobalData also projects that during the same period, more than 76 GW of nuclear capacity will be retired.

As mandated by the ANS Change Plan 2020, ANS has submitted proposed changes to Article B6 of the ANS bylaws to the membership for a vote. The proposed changes were approved unanimously by the Board of Directors and, if approved by the membership, will fulfill Objective Outcome 5 of the change plan.

Mary Lou Dunzik-Gougar

Last month I asked if you’ve ever wondered why nuclear isn’t commonly considered the choice for clean power production. I also provided what I hope will be useful information as you make the case for nuclear in discussions about clean energy. In addition to being the cleanest form of energy today, nuclear is also safe, reliable, and scalable. This month, let’s talk safety.

Like the term “clean,” “safety” can mean something different to everyone. As measured by the number of deaths per unit of electricity produced, nuclear is on the same order of magnitude as “renewables” and other low-carbon sources of energy.

The NSTX-U “umbrella.” Photo: Elle Starkman/ PPPL Office of Communications

The Department of Energy on September 8 announced funding for research at the National Spherical Tokamak Experiment Upgrade (NSTX-U), an Office of Science user facility at the DOE’s Princeton Plasma Physics Laboratory in Princeton, N.J.

Total planned funding is $17 million for the NSTX-U work over five years in duration. As much as $6 million in fiscal year 2020 dollars and out-year funding could be available this year, contingent on congressional appropriations and satisfactory progress.

The initiative will support experiments, data analysis, and computer modeling and simulation of plasma behavior. A major focus will be on the start of laying the scientific groundwork for a next-generation facility through better understanding of the behavior of plasmas in spherical tokamaks, the DOE said.

Fuel loading begins at Fuqing-5. Photo: CNNC

The loading of 177 fuel assemblies into the reactor core of Unit 5 at the Fuqing nuclear power plant began on September 4, following the issuance of the unit’s operating license from China’s Ministry of Ecology and Environment, the China National Nuclear Corporation (CNNC) announced on September 8. Construction of the reactor began in May 2015.

Unit 5 will be the first of the Hualong One reactors to enter commercial operation, expected later this year if all goes according to plan. Also known as the HPR1000, the Hualong One is a 1,000-MWe Generation III pressurized water reactor, indigenous to China. Unit 5’s twin HPR1000 at Fuqing, Unit 6, is scheduled to start contributing power to the grid next year.

Located in China’s Fujian Province, Fuqing also houses four 1,000-MWe CPR-1000 PWRs, with commercial start dates of November 2014, October 2015, October 2016, and September 2017, respectively.

Canadian Nuclear Laboratories (CNL) on September 3 announced a research collaboration agreement with Kairos Power. Funded through CNL’s Canadian Nuclear Research Initiative (CNRI), the agreement includes research and engineering for technologies to separate, analyze, and store the tritium that would be created during the operation of Kairos Power’s proposed fluoride-salt–cooled small modular reactor.

Craig Piercy

Originally published in the September 2020 issue of Nuclear News.

This issue of Nuclear News is dedicated to highlighting advancements in health physics and radiation protection as well as the contributions of the men and women who serve in these fields. It comes at a time when COVID-19 is providing the entire world with an immersive primer on the science of epidemiology and the importance of risk-informed, performance-based behavior to contain an invisible—yet deadly—antagonist.

North Anna nuclear power plant. Photo: Dominion Energy

Dominion Energy has filed an application with the Nuclear Regulatory Commission to renew the North Anna nuclear power plant’s reactor operating licenses for additional 20-year terms, the Richmond, Va.–based utility announced on September 4. The NRC received the application on August 24.

North Anna, located in Mineral, Va., is home to twin 973-MWe three-loop Westinghouse pressurized water reactors. The filing makes the plant the second nuclear facility in the state to seek subsequent license renewal, after Dominion's filing in 2018 of a similar application to renew the licenses of its two Surry units—twin 874-MWe reactors. The NRC is currently reviewing that application.

(Following its April 2020 meeting, the NRC’s Advisory Committee on Reactor Safeguards issued a report recommending approval of the Surry SLR applications [NN, June 2020, p. 15].)

According to Dominion, the North Anna and Surry units produce 31 percent of the electricity for the company’s 2.5 million customers and 95 percent of the carbon-free electricity in Virginia.

Full-scale mockup of the upper third of the NuScale Power Module. Photo: NuScale

With a design that has just emerged from a rigorous safety evaluation by the Nuclear Regulatory Commission, and a customer—Utah Associated Municipal Power Systems (UAMPS)—getting ready to prepare a combined license (COL) application, what is next for Oregon-based NuScale Power and for near-term small modular reactor prospects in the United States? As milestones are reached, many want to know.

NuScale plans to supply twelve 60-MWe modules for a 720-MWe plant—called the Carbon Free Power Project (CFPP) by UAMPS—to be sited at Idaho National Laboratory. A smaller, 50-MWe module version of NuScale’s design recently became the first SMR to receive a final safety evaluation report (FSER) from the Nuclear Regulatory Commission.

“The NRC design approval represents a significant de-risking factor for the CFPP,” said UAMPS spokesperson LaVarr Webb. The project is “making steady progress,” Webb said, adding that “UAMPS General Manager and CEO Doug Hunter has said it is much more important to do the project right than to do it fast.”

Despite high-profile calls to repeal the scandal-tainted Ohio Clean Air Program Act (H.B. 6) and recent legislation crafted toward that end in both the Ohio House and Senate (66 of 99 House members have reportedly co-sponsored Democratic or Republican bills to repeal H.B. 6), the policy behind the measure continues to garner support.

As reported here on August 26, the six commissioners from Ohio’s Lake and Ottawa counties—home to Davis-Besse and Perry, the two nuclear plants saved from early closure by H.B. 6—have made clear their opposition to an immediate repeal of the act.

The Department of Energy’s Office of Environmental Management issued a final request for proposal (RFP) last week for its Nationwide Low-Level Mixed Low-Level Waste Treatment Services procurement. According to the DOE, the RFP is being issued on a full-and-open, unrestricted basis. The DOE intends to issue one or more basic ordering agreements as a result of this RFP.

The final RFP was can be found on the website of the DOE’s Environmental Management Consolidated Business Center. It also will be posted to the Fedconnect website. The deadline for RFPs is September 30.

A licensing board of the Nuclear Regulatory Commission issued an order last week denying calls to reopen proceedings against Holtec International’s application to construct and operate a consolidated interim storage site for used nuclear fuel in southeastern New Mexico.

Fasken Land and Minerals, an oil and gas company based in Midland, Texas, along with Permian Basin Land and Royalty Owners, an association of oil and gas producers and royalty owners (collectively called Fasken), filed motions with the NRC Atomic Safety and Licensing Board (ASLB) seeking to reopen the record and submit an amended late contention against Holtec’s license application.

The National Academies of Sciences, Engineering, and Medicine (NAS) has begun a new webinar series, with the first entry titled “What’s new in low-dose radiation.” The July 22 event kicked off the Gilbert W. Beebe Webinar Series—an extension of the Beebe Symposium, which was established in 2002 to honor the scientific achievements of the late Gilbert Beebe, NAS staff member and designer/implementer of epidemiologic studies of populations exposed to the atomic bombings of Hiroshima and Nagasaki as well as the Chernobyl accident.