Unlocking America’s Nuclear Gold Mine: The Promise of Spent Fuel

Private Enterprise Can Solve the Spent Nuclear Fuel Problem Beyond Government Grants

Ronald Stein, P.E. is an engineer, columnist on energy literacy at America Out Loud NEWS, and advisor on energy literacy for the Heartland Institute and CFACT, and co-author of the Pulitzer Prize-nominated book “Clean Energy Exploitations”. He has been featured in the CIO Look Magazine as one of The Most Influential ENERGY LEADERS Shaping the Future of the ENERGY SECTOR

Olivia Vaughan is a business strategist. She has a Bachelor of Commerce Cum Laude and an MBA and operates across key sectors in the circular economy, sustainable systems and the built environment.  She is co-founder and CEO of a Nuclear innovation company in South Africa, Next Gen Nuclear.

 Steve Curtis has a Master’s degree in Health Physics from UNLV.  He has spent decades studying spent fuel issues in Nevada and worked as a technical field team leader for nuclear search and characterization missions for the Department of Energy.  He is currently engaged in education, speaking, and writing in favor of nuclear power returning to the United States, especially from recycling spent nuclear fuel in fast reactors.  He has recently co-founded and is the Chief Technical Officer for U2energy, Inc. to advance the fast reactor recycling initiative.

Co-authored by Ronald Stein and Steve Curtis from the USA, and Olivia Vaughan from South Africa

Published August 14, 2026, in America Out Loud NEWS

The recent shift in the national conversation around nuclear generated electricity is encouraging. After decades of political hesitation, federal and state leaders are once again speaking positively about the role of nuclear power in delivering reliable, abundant electricity. That change in tone matters. However, favorable rhetoric alone will not solve one of the industry’s most persistent challenges, which is what to do with America’s growing inventory of spent nuclear fuel. That “spent” is also referred to as “slightly used nuclear fuel” (SUNF) which still contains about 95% of its unused potential energy after years inside a reactor

The Department of Energy’s Nuclear Lifecycle Innovation Campus initiative is a case in point. The program has generated headlines by identifying five states as potential partners in exploring integrated nuclear fuel cycle facilities. Yet the reality is more modest than many observers assume. Although the states have signed non-binding memorandums of understanding to continue discussions, they have not committed to accepting spent nuclear fuel, nor have final host agreements been executed.

That distinction is important because public discussion sometimes creates the impression that a solution to the nation’s nuclear waste dilemma is just around the corner. In reality, the United States remains a long way from establishing a permanent or consolidated system for managing spent fuel.

Decades after Congress assigned the federal government responsibility for disposing of commercial spent nuclear fuel, most of that material remains stored at reactor sites around the country. The Government Accountability Office has repeatedly described the nation’s waste management program as being at an impasse and has called for congressional action to move the process forward.

The Limits of a Government-Only Strategy: Federal efforts in recent years have focused heavily on “consent-based siting,” a process intended to identify willing host communities for spent fuel storage facilities. DOE describes this approach as a collaborative, community-centered process that may ultimately lead to negotiated agreements for interim storage facilities.

Consent-based siting is an improvement over past approaches that attempted to impose solutions from Washington. Communities deserve a meaningful voice in decisions that affect their future.

But the challenge is that process alone is not a solution, as evidenced by the fact that no state has “consented to accept” spent nuclear fuel, either as a permanent solution or an interim solution.

Too often, public policy substitutes studies, committees, consultations, and funding announcements for measurable progress. Government can facilitate discussions and establish regulatory frameworks, but it cannot create effective economic incentives necessary to transform spent nuclear fuel from a liability into a valuable resource.

As long as success is measured by meetings held, grants distributed, and reports published, there is little incentive to deliver a commercially sustainable outcome.

Turning a Liability into an Asset: A different approach begins with a simple question: What if spent nuclear fuel were viewed not primarily as waste, but as a valuable energy resource?

Many advanced nuclear technologies, particularly fast reactors, are designed to utilize materials that remain in used nuclear fuel. Supporters of fuel recycling argue that a significant portion of the energy potential contained in spent fuel remains available for future use. In that view, the challenge is not merely disposal but resource recovery.

This is where private enterprise can make the difference because there is huge commercial opportunity in turning spent nuclear fuel into electricity.

Rather than relying indefinitely on federal appropriations and political cycles, policymakers should consider creating conditions that allow private industry to assume greater responsibility for managing and recycling spent fuel. The federal government would still play an essential role by establishing clear rules, enhancing safety, and honoring existing commitments. But innovation, investment, and execution should increasingly come from the private sector.

A Proposal for Partnership: One model would be to use resources already accumulated through the Nuclear Waste Fund and related federal commitments to facilitate the transfer of spent fuel management responsibilities into a commercially driven framework. At the same time, one or more states would need to voluntarily agree to host facilities capable of receiving, processing, recycling, or otherwise managing used nuclear fuel.

Such an arrangement would not simply spend public money. It would seek to leverage public resources to catalyze private investment, job creation, technological development, and long-term industrial growth.

The DOE has promoted Nuclear Lifecycle Innovation Campuses as hubs that could eventually support fuel fabrication, enrichment, recycling of used fuel, and waste management functions. If structured properly, such campuses could become engines of private-sector innovation rather than primarily government-directed programs.

The economic potential could be substantial. DOE has stated that innovation campuses could attract significant private investment and create large numbers of high-paying jobs in host regions.

From Subsidy to Incentive: There is an old saying: give a man a fish and you feed him for a day; teach him to fish and you feed him for a lifetime.

The same principle applies here.

Simply distributing government funding without creating strong incentives for performance risks perpetuating the cycle of study, delay, and dependency. By contrast, jump-starting companies to enter the business of successfully recycling, processing, and utilizing spent nuclear fuel aligns economic incentives with public objectives.

When private investors have capital at risk, delays become costly, innovation becomes valuable, efficiency becomes essential and results become measurable.

That does not mean government disappears from the process. On the contrary, government remains responsible for enhancing public safety, environmental oversight, and policy certainty. But government should create the conditions for success rather than attempting to manage every aspect of implementation.

A Historic Opportunity: The United States may be entering a unique moment, as public attitudes toward nuclear energy have become more favorable, concerns about energy security are increasing, and advanced reactor technologies continue to gain attention.

Federal leaders deserve credit for recognizing the strategic importance of nuclear power and for reopening discussions about the back end of the fuel cycle.

The next step, however, is to move beyond discussion.

America’s spent nuclear fuel challenge will not be solved by rhetoric, grants, or endless study alone. It will be solved when states voluntarily participate, when private industry sees opportunity rather than liability, and when policymakers create incentives that reward actual progress.

The choice is simple. America can continue talking about the problem or build a system that finally solves it. The most promising path forward is one in which government enables, private enterprise leads, and the nation transforms a long-standing burden into a lasting economic opportunity to provide affordable and abundant electricity to its citizens and to the world.

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21 Comments
Nick Stokes
September 15, 2026 2:10 pm

“What if spent nuclear fuel were viewed not primarily as waste, but as a valuable energy resource?”

This is silly pollyanna stuff. Yes, you can get more energy from it. But that doesn’t solve the waste property. You consume a few artificially created isotopes, but create a whole lot more. It’s like the old lady who swallowed a fly.

MarkW
Reply to  Nick Stokes
September 15, 2026 2:28 pm

I see Nick knows as little of physics as he does climate.

Nick Stokes
Reply to  MarkW
September 15, 2026 3:11 pm

Here is a good recent example of MarkW pontificating on nuclear physics.

Reply to  Nick Stokes
September 15, 2026 2:54 pm

Reprocessing reduces stored FUEL waste by at least 90%, plus you get more power from the reprocessed fuel

There are other wastes.

Nick Stokes
Reply to  wilpost
September 15, 2026 3:02 pm

There are other wastes.”

Yes, there are. And the question is, do you come out ahead?

Very much not.

Reply to  Nick Stokes
September 15, 2026 3:23 pm

Maybe not ahead regarding the wastes, BUT you get that energy!

Editor
Reply to  Nick Stokes
September 15, 2026 3:30 pm

Let’s see the numbers, eg, Gigawatt hours of electricity and cubic metres of waste. Then work out whether we would be ahead.

Nick Stokes
Reply to  Mike Jonas
September 15, 2026 3:58 pm

We’re talking radioisotopes. here. A few gram of Sr-90 can kill a city. Nothing about cubic metres. The waste problem is to make it all go away.

sherro01
Reply to  Nick Stokes
September 15, 2026 4:17 pm

Nick,
The nuclear electricity topic including management of part-used fuel has been dogged by objections, some of which are low in science and high in emotion, often losing touch with reality. The social cost of slowed acceptance has a dollar cost that I do not know but could be high enough to need repair.
Such repair has to incorporate known science that is not contentious. Matters like decay half lives and the range distance of radiation types like alpha, beta, gamma, neutrons plus the mechanisms of harm to people and other life forms. In my understanding, the present knowledge about these main factors is excellent and is not a barrier to design of ways to manage this reactor “waste”.
I have floated before that one management option is to simply disperse the materials in the oceans. Dilution is so large that the addition is far less than existing natural radiation and so does not add materially to overall harm. I floated this not because I favour it, but to help publicise the known physics.
It does not matter much that (demonised) Plutonium-239 as found in reactors has a half-life of 24,110 years. That observation alone does not signify harm. The natural isotope Uranium-235 half life is 704 million years, but so what? We do not need to “manage” uranium forever, we do not need to manage plutonium forever.
The critical management consideration is simple. Keep adequate, safe distance between radiation source and life form. Where appropriate, use dilution.
And take emotion out of the equation.
Geoff S

Nick Stokes
Reply to  sherro01
September 15, 2026 4:49 pm

Geoff
Plutonium-239 as found in reactors has a half-life of 24,110 years. That observation alone does not signify harm. The natural isotope Uranium-235 half life is 704 million years, but so what?”
Prima facie, U-235 is 29200 x less harmful.

Keep adequate, safe distance between radiation source and life form. “

Yes, for 24110 years, and then some. But how?

Bob
September 15, 2026 2:31 pm

Another example of government failure. We have a waste problem everybody knows that. Government should ask for ideas for how we should handle the waste. All qualified outfits or individuals may submit ideas. There will be duplicates, that’s okay in fact that’s good. There will be stupid ideas and everything in between. We should look at them all. Shelf but keep inferior ideas. Consolidate similar ideas, ask for bids to carry out experimental work. Expand the ones that work best then get busy handling our waste. I don’t see why reusing the waste can’t be done at an existing nuclear facility. You don’t need authority to handle it on site because it is already there. In the end there will always be some waste that must be stored so get busy with the storage issue now.

mleskovarsocalrrcom
September 15, 2026 2:43 pm

I can’t understand why we haven’t done this yet. It solves two big problems ….. electricity generation and storage. “Spent” doesn’t mean useless.

September 15, 2026 2:51 pm

Russia’s Rosatom is moving ahead with a second Nuclear Fuel Reprocessing Facility.

State nuclear corporation Rosatom is building RT-2 in Zheleznogorsk, an additional reprocessing facility with capacity of 800 metric ton/y. Its existing reprocessing facility, RT-1 has a capacity of 400 metric ton/y.

Russia aims to recycle up to 95% of spent nuclear fuel, reusing separated uranium and plutonium in mixed-oxide (MOX) and REMIX fuels to reduce long-term waste and uranium mining needs.

The existing Mayak Production Association RT-1 plant in Ozersk, Russia, processes spent fuel from VVER-440, VVER-1000, and fast reactors, recovering materials that contribute to mixed-oxide (MOX) fuel fabrication for fast reactors like the BN-800.

Reply to  wilpost
September 15, 2026 3:13 pm

Wasn’t a fast breeder reactor constructed at Hanford during WW II to produce plutonium 239 from uranium 238 for the production of nuclear bombs? How long was the reactor in operation?

Reply to  Harold Pierce
September 15, 2026 3:26 pm

Partly right. Hanford’s B Reactor did make weapons plutonium from U-238, but it wasn’t a fast breeder. It was a graphite-moderated, water-cooled pile that made Pu-239 by bombarding natural uranium with neutrons. Graphite slows neutrons to thermal speeds, so it was a thermal production reactor. Its conversion ratio was below 1, meaning it destroyed more fissile atoms than it created. A true breeder makes more fissile material than it consumes, and with uranium and plutonium that takes fast neutrons. No breeder existed during WWII; EBR-I in Idaho first demonstrated breeding in 1953. My guess is the confusion comes from the Fast Flux Test Facility. That was a sodium-cooled fast reactor at Hanford from 1980 to 1992, built to test fuels for the breeder program.

As for how long B ran: it went critical on September 26, 1944, was shut down at the end of 1946, restarted in 1948 as Cold War tensions grew, and was permanently shut down in February 1968. That’s a little over 23 years from startup to shutdown, minus an idle period of roughly one to two years.

sherro01
Reply to  Charles Rotter
September 15, 2026 4:22 pm

Charles,
Thank you for showing the importance of factual material, as opposed to emotional.
Geoff S

September 15, 2026 3:33 pm

Excellent post. Three supporting observations:

  1. Private capital will not get involved until the federal stance against recycling (mistakenly initiated by Carter over proliferation concerns that did not stop India, Pakistan, and North Korea from joining ‘the nuclear weapons club’) is fully and visibly reversed. Given the political failure of Yucca Mountain, that the current proposal is now just local state storage only says the general federal negative stance against recycling still hasn’t been reversed. Giving private nuclear fuel recycling capital visible federal support (for example, ‘production tax credits’ like for today wind) would provide such a clear reversal signal.
  2. The technology and cost risk is zero. France has recycled for almost 50 years. Japan took the French MOX process and improved it significantly before building their own spent nuclear fuel rod MOX recycling facility at Rokkasho. Just copy Japan in the US.
  3. Nick Stokes’ comment above is (as often the case) wrong about the resulting waste storage volume ‘problem’. Rokkasho reprocesses 96%. The remaining very radioactive 4% is vitrified for safe (against any future leaching) permanent burial at a single ‘small volume’ Japanese location—same as France has been doing. The recycled MOX, when it eventually also needs additional reprocessing, produces about the same ratios. Just rinse and repeat, as France has been doing for about 50 years.
Nick Stokes
Reply to  Rud Istvan
September 15, 2026 4:05 pm

 The remaining very radioactive 4% is vitrified”

You may have reduced the original to 4% by mass. But as you say it is much more radioactive. And the process creates a whole lot more new waste.

sherro01
Reply to  Nick Stokes
September 15, 2026 4:35 pm

Nick,
Colleagues and I discovered/developed the Ranger Uranium deposits.
They were rare examples of where Nature had encapsulated radioactive uranium in rocks, similar to encapsulating “waste” isotopes in glass – or in Australia’s top product Synrock as in synthetic rock.
The Ranger ores were of the order of 10,000 times enriched by Nature. They were mined for 30 years with no apparent harm to man nor beast. I survived exposures there above those experienced by most people but have reached a happy 85 years with marbles intact.
So, what is the problem with “waste” isotopes being put into glass or Synrock? The are substantial similarities with natural uranium ores that overall have helped a penny-poor Australia to stay solvent despite the efforts of the largely ignorant green blob.
Can we please remove some emotion from policy decisions?
Geoff S

Mike Borgelt
September 15, 2026 4:02 pm

It isn’t “nuclear waste” it is slightly contaminated fuel that needs purification before reuse.

Ron Long
September 15, 2026 4:04 pm

Of course you can reprocess spent fuel into something useful again, either energy or spent uranium tank killers. I spent four years managing a uranium exploration company, and, with a scintillometer in your hand, and a radiation exposure unit in your pocket, you are much safer than walking down the halls of a hospital where sickness hangs out. Sure, radiation needs monitoring and control, but it is easy to handle safely. Here’s a comment (from Doctors I met with at the IAEA Redbook review in Austria): workers in radiation environments live longer than in other industries, apparently because they get a mandated health check-up every year, and they detect problems early.