OREM and cleanup contractor UCOR are set to fully deactivate the Experimental Gas-Cooled Reactor at Oak Ridge for eventual demolition. Photo:DOE

With work recently completed on the removal of a former uranium enrichment complex at the East Tennessee Technology Park (ETTP), the Department of Energy is shifting focus to other remediation projects around the Oak Ridge National Laboratory. On October 27, the DOE announced that the Oak Ridge Office of Environmental Management (OREM) is set to begin cleanup of the Experimental Gas-Cooled Reactor at the site.

OREM and cleanup subcontractor UCOR are in the planning stages to fully deactivate the reactor for eventual demolition. The reactor is one of 16 inactive research reactors and isotope facilities that OREM is addressing and cleaning up at Oak Ridge. The cleanup effort will happen concurrently with other OREM cleanup projects underway at the Y-12 National Security Complex in Oak Ridge.

Weapon systems, research rockets, and artillery were tested on the Tonopah Test Range beginning in 1956. Photo: DOE

The Department of Energy’s Office of Environmental Management (EM) announced on October 27 that it has completed another of its 2020 priorities—completing the remediation activities on and around the Tonopah Test Range and conveying 70 sites into long-term stewardship. Cleanup of the historic site, located within the Nevada Test and Training Range about 160 miles northwest of Las Vegas, was completed in less than half the time initially estimated, according to the DOE.

Oversight of the 70 remediated sites has now been transferred from the Office of Environmental Management to the DOE’s Office of Legacy Management (LM), which provides long-term surveillance and maintenance of remediated and closed DOE sites. Undersecretary for Science Paul Dabbar and other representatives from the DOE and the National Nuclear Security Administration (NNSA) celebrated the transfer of the sites to LM on October 20.

The Zephyr system uses probes for steam generator inspections. Photos: APS

The Palo Verde Nuclear Generating Station, a three-unit pressurized water reactor plant operated by Arizona Public Service Company, has started using an inspection technology relatively new to the nuclear industry. The technology, called smart pigs (an acronym for “piping inline gauges”), has previously been employed by oil and gas companies for inspecting and cleaning underground pipes. After testing and analyzing smart pig products from several companies, Palo Verde’s underground piping consultant, Dan Wittas, selected a smart pig suitable for navigating the tight-radius bends in the plant’s spray pond piping. The spray pond system consists of piping, a pump, and a reservoir where hot water (from the Palo Verde plant) is cooled before reuse by pumping it through spray nozzles into the cooler air. Smart pigs work by using the water’s flow through the piping to move an inspection tool within the pipe itself. The technology replaces the previous method of pipe inspection, in which various relatively small sections of piping were unearthed and directly inspected, and were considered to be representative examples of the overall piping condition. In contrast, the smart pigs obtain corrosion levels for the length of piping traveled through and allow a corrosion baseline to be established.

From left: Secretary of Defense Mark Esper and Secretary of State Mike Pompeo participate in the U.S.-India 2+2 Ministerial Dialogue plenary session with Indian Defense Minister Rajnath Singh and Indian External Affairs Minister Subrahmanyam Jaishankar in New Delhi, India, on October 27, 2020. Photo: State Department/Ron Przysucha

In New Delhi earlier this week, U.S. Secretary of State Mike Pompeo and Secretary of Defense Mark Esper joined their Indian counterparts, Minister of External Affairs Subrahmanyam Jaishankar and Minister of Defense Rajnath Singh, for the third U.S.-India 2+2 Ministerial Dialogue—a yearly confab focused on strengthening the strategic relationship between the two nations. (In February of this year, the White House elevated that relationship to Comprehensive Global Strategic Partnership status.)

The first 2+2 dialogue took place in New Delhi in September 2018, with a second held in Washington, D.C., in 2019. Washington is scheduled to host the fourth such meeting next year.

Watts Bar Unit 2. Photo: TVA

The Nuclear Regulatory Commission has approved a request from the Tennessee Valley Authority to increase the generating capacity of Unit 2 at the Watts Bar nuclear power plant by 1.4 percent, according to an October 27 press release from the agency. TVA submitted its application for the power uprate on October 10, 2019, and the NRC issued the required license amendment on October 21.

The power uprate, which TVA intends to implement by mid-December, will increase Unit 2’s generating capacity from approximately 1,223 MWe to 1,240 MWe.

“The NRC staff determined that TVA could safely increase the reactor’s output, primarily through more accurate means of measuring feedwater flow,” the press release stated, adding, “NRC staff also reviewed the TVA evaluations demonstrating that the plant’s design can safely handle the increased power level.”

Rosenergoatom, the electric power division of Russia’s state-owned nuclear power corporation Rosatom, announced on October 23 that Leningrad II-2 has been connected to the grid. The unit is one of two Generation III+ VVER-1200 pressurized water reactors at the Leningrad nuclear plant.

The reactor will replace Leningrad I-2, a 925-MWe RBMK-1000 light-water–cooled graphite-moderated reactor that will permanently cease operation at the end of 2020 after 45 years of service. Fuel loading at Leningrad II-2 began in July, and initial criticality was achieved in August. Following the trial operation, the unit will be shut down for an additional equipment inspection by a state commission before being put into commercial operation early next year, according to Rosenergoatom.

The Advanced Beam Laboratory at Colorado State University will receive funding under the DOE’s LaserNetUS program.

The Department of Energy’s Office of Fusion Energy Sciences (FES) aims to accelerate U.S. research in the field of high-energy-density plasma science with the awarding of $18 million to fund operations and user support at high-intensity laser facilities in the United States and Canada, the DOE announced on October 27.

The award is part of FES’s LaserNetUS initiative, which was established in 2018 to provide U.S. scientists increased access to high-intensity laser facilities at 10 universities and national laboratories: the University of Texas at Austin, Ohio State University, Colorado State University, the University of Michigan, the University of Nebraska–Lincoln, the University of Rochester, SLAC National Accelerator Laboratory, Lawrence Berkeley National Laboratory, Lawrence Livermore National Laboratory, and Canada’s Université du Québec.

Rising

Agneta Rising, outgoing director general of the World Nuclear Association, wrote in an October 27 World Nuclear News article that nuclear power is an essential part of the climate change solution, even if it is not part of the conversation in the European Union. “In many ways, the future of nuclear energy is much brighter than it has been for many years. We are evermore recognized and valued for the unique services that nuclear energy offers humanity, and I am immensely proud to have served and led our industry through these exciting times," said Rising in a farewell message that recapped her time as WNA director general.

Advanced reactor developers see potential markets for reactors in a range of sizes that offer clean, reliable, flexible, and cost-competitive power. Many have reached agreements with suppliers, utilities, and others to support the demonstration and possible deployment of their designs. Nuclear News is following these activities. Read on for updates and check back with Newswire often for more on the Advanced Reactor Marketplace.

Canada has invested Can$20 million in Terrestrial Energy’s 195-MW Integral Molten Salt Reactor through the Ministry of Innovation, Science and Industry, the company announced on October 15. In accepting the investment, Terrestrial Energy, which is based in Oakville, Ontario, has committed to creating and maintaining 186 jobs and creating 52 co-op positions nationally. In addition, Terrestrial Energy is spending at least $91.5 million on research and development. According to the company, the funds will assist with the completion of a key pre-licensing milestone with the Canadian Nuclear Safety Commission.

Two days earlier, Terrestrial Energy USA and Centrus Energy announced that they had signed a memorandum of understanding to evaluate the logistical, regulatory, and transportation requirements to establish a fuel supply for Integral Molten Salt Reactor power plants, which would use standard-assay low-enriched uranium at an enrichment level less than 5 percent.

The Santa Fe New Mexican, in its October 24 edition, reported on a study by the University of New Mexico’s Bureau of Business and Economic Research that found that the state could use money from a nearly $1- billion federal mining settlement to create a new industry around the cleanup of abandoned uranium mines in the Southwest.

Ontario Power Generation has officially opened its Centre for Canadian Nuclear Sustainability, the company announced on October 23. Located in Ontario’s Durham Region, the new center is intended to integrate collaboration and research in the nuclear life cycle while also supporting the work under way to prepare for the decommissioning of OPG’s Pickering nuclear power plant.

A “visionary view” of a nuclear thermal propulsion–enabled spacecraft mission. Image: NASA

Secretary of Energy Dan Brouillette and NASA Administrator Jim Bridenstine on October 20 signed a memorandum of understanding to continue decades of partnership between the Department of Energy and NASA and to support the goals of NASA’s Artemis program. These include landing the first woman and the next man on the moon by 2024 and establishing sustainable lunar exploration—using nuclear propulsion systems—by the end of the decade to prepare for the first human mission to Mars.

In testimony filed last week with the Georgia Public Service Commission, Georgia Power and Southern Nuclear acknowledge that the “aggressive” target dates set in July for some of the Vogtle construction project’s upcoming milestones have had to be pushed back by a few months. At the same time, however, the companies continue to express confidence in being able to meet the regulatory-approved commercial start dates for the new reactors—November 2021 for Unit 3 and November 2022 for Unit 4.

The testimony was filed in support of Georgia Power’s Twenty-third Semi-annual Vogtle Construction Monitoring Report, released in August, which covers the period from January 1 to June 30, 2020.

Waste Management Symposia, which hosts the Waste Management Conference every year in Phoenix, Ariz., announced on October 23 that it is putting an increased emphasis on funding scholarships at historically black colleges and universities (HBCU) and at institutions near Department of Energy sites. The organization said that the funding is part of its continuing effort to help the DOE and the nuclear industry develop the workforce of the future.

Bulgaria’s Kozloduy nuclear plant. Photo: Wikimedia Commons/Gogo89873

The United States in the past few weeks has signed civil nuclear agreements with Romania and Poland, and now a third European nation can be added to the list: Bulgaria.

Unit 5 at China National Nuclear Corporation’s (CNNC) Fuqing nuclear power plant has achieved initial criticality, becoming the very first Hualong One reactor to reach that milestone, the company announced on October 22. If all goes according to schedule, the unit will enter commercial operation later this year.

Fuel loading for Unit 5 began on September 4, following the issuance of the reactor’s operating license by China’s Ministry of Ecology and Environment. The loading of 177 sets of fuel assemblies was completed on September 10.

Also known as the HPR1000, the Hualong One is a Chinese-designed, 1,000-MWe Generation III pressurized water reactor. Fuqing-5’s twin HPR1000, Fuqing-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.

Nuclear Science Week (NSW) is a celebration designed to focus local, regional, national, and international interest on all aspects of nuclear science. National events marking the 11th annual NSW took place October 19–23 in Washington, D.C. This year’s theme was “Think Clean. Think Solutions. Think Nuclear.”

Several ANS local and student sections from around the world organized their own events to celebrate NSW, as follows:

Bruce Power has harvested a second batch of Co-60 this year. Image: Bruce Power

Bruce Power announced on October 22 that it has completed its second harvest of cobalt-60 this year during an outage of Unit 8 of the Bruce nuclear power plant in Kincardine, Ontario, Canada. The company said that with this latest harvest, it will have provided the world enough of the medical isotope to sterilize 20 billion–25 billion pairs of gloves or COVID-19 swabs.

The Co-60 will be sent to Ottawa-based Nordion for processing and distribution over the next several weeks, according to Bruce Power. From there, the isotope will be shipped around the world for use in gamma irradiation to sterilize medical devices such as single-use gowns, surgical gloves, scalpels, syringes, and other critical health care equipment.

Missouri S&T’s pool-type nuclear reactor. Photo: Sam O’Keefe/Missouri S&T

Sixty years ago, the Missouri University of Science and Technology (Missouri S&T), then known as the University of Missouri at Rolla, was one of the first U.S. institutions to offer a nuclear engineering degree. Now, decades after it was offered as an option within metallurgical engineering, Missouri S&T’s nuclear program has attained new status as the Nuclear Engineering and Radiation Science Department, the university announced on October 20.

The MiFi-DC as portrayed in a video released by Argonne.

Electrifying the nation’s trucking industry could reduce consumption of fossil-based diesel fuel, but it would also pose new challenges. A cross-country 18-wheel truck needs five to 10 times more electricity than an electric car to recharge its battery. Where will that electricity come from?

A team of engineers at Argonne National Laboratory has designed a microreactor called the MiFi-DC (for MicroFission Direct Current) that they say could be mass-produced and installed at highway rest stops to power a future fleet of electric 18-wheelers.

Nuclear News reached out to the MiFi-DC team to learn more. The team, led by Derek Kultgen, a principal engineer at Argonne who also leads the lab’s Mechanisms Engineering Test Loop, responded to questions by email. While they emphasized that much more needs to be done before the MiFi-DC could become a fixture at rest stops across the country, the information the team shared sheds some light on the process of designing a tiny reactor for a specific purpose.