“The momentum toward a new era of nuclear energy is predicated in part on government and industry claims that new technological solutions to nuclear waste are forthcoming. But challenges remain in their realization at the necessary scale,” writes freelance journalist Jenny Johnson in the article “Nuclear renaissance hinges on solving the waste issue."
Sandia National Laboratories engineers Emily Stein, left, and Paul Mariner discuss recent results from their Geologic Disposal Safety Assessment software framework.
Ten teams of scientists from across the globe, including teams from the United States, Canada, Germany, and Taiwan, are virtually comparing software tools developed to assess the safety performance of deep geologic repositories for nuclear waste. The virtual workshop, held this month, is being conducted by members of an international collaboration called Development of Coupled Models and their Validation against Experiments, or DECOVALEX.
“The DECOVALEX initiative creates an important framework for experts in repository sciences from around the world to test and improve simulation models that are important to assessing the safety of geologic disposal,” said Jens Birkholzer, chairman of the initiative and a senior scientist at Lawrence Berkeley National Laboratory.
Waste management start-up company Deep Isolation has launched an online campaign to educate the public about nuclear waste and gain support for solving the issue to protect the environment, increase energy security, and remove a barrier to nuclear energy.
The website Solve Nuclear Waste aims to increase awareness about the need for permanent nuclear waste disposal to help secure a clean energy future. Visitors to the site can sign a petition that the company will share with elected officials and decision-makers to demonstrate that the public cares about the issue.
Canada’s Nuclear Waste Management Organization (NWMO) has completed a deep borehole drilling program at the two sites in Ontario under investigation for potentially hosting a deep geological repository to hold the country’s spent nuclear fuel. The NWMO said that Canada’s top geoscientists are leading the studies, in which approximately eight kilometers of core samples were pulled from the bedrock in the Wabigoon-Ignace area and the Saugeen Ojibway Nation (SON)–South Bruce area.
The Waste Isolation Pilot Plant’s Emergency Operations Center (EOC) and Joint Information Center (JIC) were activated on April 9 following an abnormal event that occurred during routine waste handling at the Department of Energy’s WIPP repository for transuranic waste, near Carlsbad, N.M.
The Nuclear Regulatory Commission will integrate two separate rulemaking activities concerning the disposal of low-level radioactive waste, issuing a “re-proposed” rule that consolidates updates to 10 CFR Part 61, “Low-Level Radioactive Waste Disposal,” and proposed changes to the requirements for the near-surface disposal of greater-than-Class C (GTCC) waste.
Depending on the size and complexity of a decommissioning project, the transportation and disposal of radioactive waste will have an oversized impact on planning, schedule, and budget. The scope of decommissioning a site contaminated with radioactive material begins and ends with the proper and safe packaging of waste and subsequent transportation from the site to the final disposal location. Once all of the waste is gone from the site, the compliance exercise can be completed and the site released from controls (i.e., the radioactive materials license is terminated and the site is decommissioned).
Last fall, scientists from Sandia, Los Alamos, and Lawrence Berkeley national laboratories began the third phase of a years-long experiment to understand how salt and very salty water behave near hot nuclear waste containers in a salt-bed repository. Initiated in 2017, the Brine Availability Test in Salt (BATS) project is part of a spent nuclear fuel research campaign within the Department of Energy’s Office of Nuclear Energy (DOE-NE).
The Department of Energy’s new consent-based process for siting an interim storage facility for the nation’s spent nuclear fuel faces many challenges, but it could be successful if correctly implemented by the department, according to the panelists of the American Nuclear Society’s webinar “Spent Nuclear Fuel Management: Wasting Away or Chance for Progress?” ANS President Steve Nesbit moderated the webinar, held on March 23.
The Department of Energy recently awarded $24.7 million to Oak Ridge cleanup contractor UCOR for its work at the Oak Ridge site in Tennessee from April 2021 through October 2021, amounting to 98 percent of the available fee for the evaluation period.
Several antinuclear groups are challenging the Nuclear Regulatory Commission’s licensing of Interim Storage Partners’ (ISP) consolidated interim storage facility for spent nuclear fuel in Andrews, Texas, by filing briefs in the U.S. Court of Appeals for the District of Columbia Circuit on March 18. The groups appealing the license include Beyond Nuclear, Don’t Waste Michigan (a coalition of seven environmental groups), and Sierra Club.
The NRC granted ISP a license in September 2021, authorizing the company to receive, possess, transfer, and store up to 5,000 metric tons of spent fuel and 231.3 metric tons of greater-than-Class C radioactive waste for 40 years. ISP plans to expand the facility in seven additional phases, up to a total capacity of 40,000 metric tons of fuel.
Without a plan for addressing issues in completing construction projects at the Waste Isolation Pilot Plant in New Mexico, the Department of Energy cannot ensure that further cost increases and schedule delays will not continue, according to a report by the Government Accountability Office. In particular, the GAO said, the DOE has not developed a corrective action plan to address root causes identified for the rising cost and the delay in building a new ventilation system at the transuranic waste repository.
Westinghouse Electric Company and nuclear waste management company Perma-Fix Environmental Services plan to jointly develop a state-of-the-art advanced materials treatment facility in the United Kingdom. During the 2022 Waste Management Symposia, held last week in Phoenix, Ariz., the two companies signed a nonbinding agreement to cooperate on a facility that will provide low-level radioactive waste treatment services to the European market.
Steven P. Nesbit
president@ans.org
Have you ever been punished for something you didn’t do? It happens to most of us on occasion while growing up, especially if we have siblings. It’s not the end of the world, and it teaches a valuable lesson: Life is not fair. Nevertheless, when it happens, it really rankles you.
The “issue” of nuclear waste provides me with instant recall of those unpleasant childhood memories. Commercial nuclear power plants have been managing low-level waste and used nuclear fuel safely and efficiently since the beginning of the nuclear enterprise. Industry is adept at minimizing, packaging, transporting, and disposing of LLW. Used fuel is stored safely and securely at reactor sites, awaiting disposal.
Forty years ago, nuclear power plant operators entered into contracts with the federal government. The deal was simple. The operators would pay the U.S. government a lot of money, and the government would pick up the relatively small amount of used fuel and dispose of it in a geologic repository, beginning in 1998. The money changed hands, but the used fuel never did.
The organization of the commercial fuel cycle with the geographical separation of waste disposal facilities from other nuclear facilities is a historical artifact. There are large economic and institutional incentives to collocate many fuel cycle facilities with the repository. Similarly, there are large economic and institutional incentives to collocate proposed fission battery factories and nuclear hydrogen/synthetic fuel (synfuel) gigafactories with other waste management facilities (used fuel storage, low-level waste disposal, etc.) to create nuclear technology hubs that create economic savings, generate jobs and tax revenue, and simplify waste management.
The deadline for submitting comments on the Department of Energy’s request for information on using a consent-based approach to siting federal facilities for the interim storage of spent nuclear fuel is Friday, March 4.
The last spent nuclear fuel elements from Idaho National Laboratory’s Advanced Test Reactor (ATR) have been retrieved from a water-filled storage basin and transferred to a nearby dry-storage facility in accordance with a 1995 agreement with the State of Idaho, the Department of Energy’s Office of Environmental Management (EM) announced this week.
Isotek, the Department of Energy contractor responsible for overseeing the inventory of uranium-233 at Oak Ridge National Laboratory and preparing it for removal from the site, said it plans to resume preparations for processing high-dose U-233 in March. The company was forced to suspend its operational readiness review of the Initial Processing Campaign at Oak Ridge in January due to issues related to COVID-19, as well as difficulties operating in colder temperatures.
As part of a nonproliferation agreement, Canada and the U.S. undertook a multi-year campaign to ship liquid high-enriched uranium material from Chalk River to Savannah River.
In March 2012, during the Nuclear Security Summit in Seoul, South Korea, the governments of Canada and the United States committed to work cooperatively to repatriate approximately 6,000 gallons of high-enriched uranyl nitrate liquid (HEUNL) target residue material (TRM) stored at the Chalk River Laboratories in Ontario to the U.S. Department of Energy’s Savannah River Site in South Carolina. The announcement was part of a larger agreement between the two countries to reduce proliferation risks by consolidating high-enriched uranium at a smaller number of secure locations.
The Department of Energy’s Office of Environmental Management (EM) stated on February 22 that its Idaho National Laboratory Site contractor is operating the final test run of the Integrated Waste Treatment Unit (IWTU), running waste simulant through the facility to ensure the plant’s performance and personnel proficiency for upcoming radiological operations.