Idaho National Laboratory is playing a key role in helping the U.S. Department of Energy meet near-­term needs by recovering HALEU from federal inventories, providing critical support to help lay the foundation for a future commercial HALEU supply chain. INL also supports coordination of broader DOE efforts, from material recovery at the Savannah River Site in South Carolina to commercial enrichment initiatives.

Craig Piercy
cpiercy@ans.org

While most big journeys begin with a clear objective, they rarely start with an exact knowledge of the route. When commissioning the Lewis and Clark expedition in 1803, President Thomas Jefferson didn’t provide specific “turn right at the big mountain” directions to the Corps of Discovery. He gave goal-oriented instructions: explore the Missouri River, find its source, search for a transcontinental water route to the Pacific, and build scientific and cultural knowledge along the way.

Jefferson left it up to Lewis and Clark to turn his broad, geopolitically motivated guidance into gritty reality.

Similarly, U.S. nuclear policy has begun a journey toward closing the U.S. nuclear fuel cycle. There is a clear signal of support for recycling from the Trump administration, along with growing bipartisan excitement in Congress. Yet the precise path remains unclear.

WASHINGTON, D.C. — The American Nuclear Society (ANS) sent a letter to U.S. Secretary of Energy Chris Wright and the U.S. Department of Energy (DOE) in response to Executive Order 14302, “Reinvigorating the Nuclear Industrial Base.” The letter outlines expert-backed recommendations for establishing an effective national program within the United States to manage the storage, reprocessing, and final disposal of commercial used nuclear fuel once it has been in a reactor from a nuclear power plant. This stage is commonly referred to as the “back end” of the nuclear fuel cycle.

Servis

Scientists at Argonne National Laboratory are investigating a used nuclear fuel recycling technology that could lead to a scaled-down and more efficient approach to metal recovery, according to a recent news article from the lab. The research, led by Argonne radiochemist Anna Servis with funding from the Department of Energy’s Advanced Research Projects Agency–Energy (ARPA-E), could have an impact beyond the nuclear fuel cycle and improve other high-value metal processing, such as rare earth recovery, according to Argonne.

The research: Servis’s work is being carried out under ARPA-E’s CURIE (Converting UNF Radioisotopes Into Energy) program. The specific project—Radioisotope Capture Intensification Using Rotating Packed Bed Contactors—started in 2023 and is scheduled to end in January 2026.

Patrick O’Brien

As someone who grew up in a community with an operating nuclear plant—Pilgrim Nuclear Power Station, in Plymouth, Mass., on Cape Cod Bay—I had the luxury of a more thorough education on what nuclear power was (and what it wasn’t) from an early age. Unfortunately, growing up in the 1980s and ’90s, many of my contemporaries were not as lucky; their education on nuclear power came from The Simpsons.

While it is a show that influenced a generation in many ways, its portrayal of the nuclear industry had no basis in reality. Nuclear workers are among the most professional and highly trained people in the world. The standards by which used fuel and waste are handled and stored are some of the strictest of any industry. I have found, after nearly a decade in the nuclear industry, that the first thing I must help the public, media, and even elected officials understand is that used nuclear fuel is not green goo in a barrel, but a solid pellet stored safely in robust dry storage casks. Providing the facts—the science and technology—is the key to helping people understand a complex industry. Doing so in simple terms can help demystify nuclear power.

The question “What about the waste?” is typically thrown out by the antinuclear crowd as an attempt to bog down the discussion of nuclear development. However, with renewed interest in nuclear power—and new advanced reactors in particular—what to do about used nuclear fuel is coming to the fore as a question that needs resolving.

The rapid changes in the nuclear energy industry over the last decade, driven in part by fluctuating energy market prices and an aging fleet of reactors, have led to the closure of multiple reactors in the United States and other countries. These closures have increased the need for larger and more efficient ways to manage low-level radioactive waste processing and transport capacities. The safe transport of radioactive material is a key component of the overall nuclear industry reliability. Though sometimes perceived as a bottleneck and costly, it is necessary to send waste material to disposal.

Craig Piercy
cpiercy@ans.org

It is often said that in Washington, “trust is the coin of the realm.” Of course, you can be forgiven for thinking these days that trust in politics is an outmoded concept—that the only coin of the realm today is, well, “coin.” But you would be wrong.

Behind the facade of political polarization and tribalism there still exists a genuine desire to make good policy. Of course, each side of the ideological spectrum will always have their preferred set of solutions, and those solutions will usually be “spiced” by the parties’ respective “bases.” But I never cease to be surprised by how much undetected common ground exists on practical matters.

During the last six months, in partnership with the bipartisan U.S. House Advanced Reactor Caucus, I have had the honor of moderating monthly Jeffersonian dinners on Capitol Hill with members of Congress and leaders from across the nuclear profession. If you are not familiar with the format, a Jeffersonian dinner requires that there be one single conversation at the table around a posed central question, such as, “Is nuclear energy overregulated?” or “Should the U.S. recycle its nuclear fuel?”

Orano TN Americas and South Korean special steel maker SeAH Besteel last week announced the completion and delivery of the first dual-purpose used nuclear fuel dry storage cask manufactured for a U.S. utility by the Korean company.

Following Orano’s purchase order in September 2019, SeAH Besteel established a mass production system for Orano’s dual-purpose casks in compliance with U.S. and international nuclear standards. Orano TN Americas is a subsidiary of France’s Orano NPS.

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.

^{DISCLAIMER: The views expressed in posted articles do not necessarily reflect the views of the American Nuclear Society. The views expressed here are those of the individual authors. ANS takes no ownership of their views. The American Nuclear Society assumes no responsibility or liability for any use or operation of any methods, products, instructions, or ideas contained on this site.}

It is hard to get anyone to agree on anything these days. However, it’s pretty safe to say that most of us want clean air to breathe and adequate energy supplies. It is difficult to see any current or proposed energy policy that brings us closer to that goal. In fact, over the past 15 years, we have not put a dent in our “carbon footprint,” despite the proliferation of “renewable energy” supported by staggeringly large subsidies. What is really puzzling, however, is the huge amount of subsidy money going toward fossil fuels when we are told that these have to be gone completely by the year 2050. Of $18.4 billion dollars in subsidies in 2016, 59 percent went to renewables, 25 percent went to fossil fuels, and 15 percent went to “energy efficiency.”

Saying they are cautiously optimistic that the Biden administration can change the U.S. trajectory on nuclear waste, some Stanford University experts have offered their recommendations on how it can be done in a recent Stanford news posting.

Indian Point nuclear power plant. Photo: Entergy Nuclear

Communities across the United States where nuclear power plants have been shut down face huge gaps in tax revenues, sometimes in the tens of millions of dollars. States such as New Jersey, Illinois, Wisconsin, and California are watching events in New York now that Gov. Andrew Cuomo has signed a new law that says cities can “assess the economic value of storing waste” on sites where nuclear plants once operated, as reported by Bloomberg.

The House Appropriations Committee held its full committee markup of the Energy and Water Development bill on July 13. (The Bill Report provides a more detailed funding breakdown.) The final bill passed the committee by a party line vote of 30-21. No schedule for Floor consideration of the bill has been set, but it is likely to happen next week or the week after.

The antinuclear organization Beyond Nuclear has filed an appeal with the U.S. Court of Appeals for the District of Columbia Circuit requesting a review of the Nuclear Regulatory Commission’s decision to deny its petition against Holtec International’s application to build and operate a consolidated interim storage facility (CISF) for spent nuclear fuel in southeastern New Mexico.