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Capitalism Is Shoving AI Down Our Throats Because It Can’t Give Us What We Actually Want.

Caitlin Johnstone, Oct 26, 2025, https://www.caitlinjohnst.one/p/capitalism-is-shoving-ai-down-our?utm_source=post-email-title&publication_id=82124&post_id=177138322&utm_campaign=email-post-title&isFreemail=true&r=1ise1&triedRedirect=true&utm_medium=email

At some point capitalism lost the ability to give us new things that we need and started giving us new things we don’t need, and now it’s giving us new things we never needed and don’t even really want.

Nobody needs all this generative AI crap. We were doing fine with online search functions and the ability to write and make art for ourselves. Only the most shallow and vapid of individuals find any appeal in the idea of talking to a chatbot like a companion, consuming “art” generated by a computer program, or letting the technology of some plutocratic megacorporation do their thinking, researching and expressing for them.

The economy is now balancing on a giant bubble of a fledgeling industry that is already underperforming expectations and hitting points of diminishing returns on multiple fronts, all while being really bad for the environment. And it doesn’t improve anyone’s life in any meaningful way.

Nobody asked for this.

And it’s not like people aren’t asking for things; capitalism just doesn’t have the ability to give them the things they are asking for. World peace. Affordable housing. Good health. Fast and efficient public transportation systems. Solutions to the various environmental catastrophes that status quo human behavior is driving us toward. The ability to have our needs met without spending all our time at work. Care for the needful. General human thriving. These are not demands that a system driven by the pursuit of profit for its own sake can supply.

When capitalism first showed up it delivered plenty of new things which people had a need and a desire for that weren’t available under previous systems like feudalism. The greatly increased material abundance and explosions of scientific and technological innovation ushered in with the dawn of capitalism caused human quality of life to improve by leaps and bounds.

But now we’re at a point where that just isn’t happening anymore. Things have stagnated, and we’re starting to backslide. People are getting dumbersickerlonelier, and more and more miserable. And the profit-driven systems we live under have no answers, besides throwing increasingly shitbrained technology at us so we can distract ourselves from how fucked up everything has gotten.

We are being driven into dystopia and annihilation by systems of our own making. We’re meant to be the smartest species on earth, but we locked ourselves in our invention — a self-reinforcing labor camp that makes us miserable — and then we get all huffy when people dare to question if it’s the only way of doing things. Literally every other species is smarter than us. Amoebas are having a better time of it.

This will change when humanity replaces capitalism with something better, in the same way we replaced feudalism with the superior system of capitalism. I don’t know what that system is going to look like, but it’s going to have to involve a move from a model that is driven by competition to one that is driven by collaboration. That’s the only way humanity will be able to channel all its brilliance toward the immense project of overcoming all the obstacles we now face as a species, along with all terrestrial organisms.

Until then, all we can do is try to help awaken as many of our fellow humans as possible to the reality of our circumstances. Use every means at our disposal to teach people how dire our plight is, how deceived we’ve been by the propaganda and indoctrination of the empire we live under, how sorely change is needed, and that a better world is possible. Once we get enough eyes open, we’ll have the numbers to force things to change.

October 27, 2025 Posted by | technology | Leave a comment

Mainers will not benefit from coastal rocket launch sites 

Economic and oversight concerns make this a bad idea for our state.

Mark Roman, 23 Oct 25, https://www.pressherald.com/2025/10/24/mainers-will-not-benefit-from-coastal-rocket-launch-sites-opinion/?fbclid=IwY2xjawNody5leHRuA2FlbQIxMQABHr7ujQu7s5IxTGHuLsxH8Te28SLffsiEE1-DCAP6rzoBcs8UY5ehohVECPOr_aem_eLaaIl6zff9h2FKo1bMgkA

I read with interest the Sept. 17 op-ed by Thom Moore, “Maine should vie to be the next US spaceport,” arguing for Maine to become a place where rocket launches occur regularly.

It’s not surprising that a retired NASA scientist who is not from Maine feels our state would be improved by toxic industrial activity of the sort Texas and Florida have to deal with regularly. Moore writes: “… a space industry could make beneficial contributions to Maine’s economy and to the national supply of viable launch sites.”

Let’s examine those claims. 

Claims of benefit to Maine’s economy must be weighed against the harms to our traditional economy. Maine’s economy is highly dependent on commercial fishing on the one hand and tourism on the other. Even with the government shutdown, tourists are still flocking to Acadia National Park from all over the world. It’s a uniquely beautiful spot where one can witness the first rays of dawn light in the continental U.S.  

Residents of nearby Steuben earlier this year rejected a bid to build a rocket launch site offshore of their village, citing the threat to environmental health of waters where food is harvested and also significant noise pollution. And as far as optics, who wants to see a rocket launch facility within sight of Acadia? Not locals. 

Previously, Jonesport rejected a launch site after passing a moratorium to halt development while local residents had time to study the proposal. Which town will be next to say it does not want to hear or see rockets launching from its coast?

At present there is almost no regulatory oversight of such potentially harmful uses of Maine’s shoreline. Look what SpaceX has done to Boca Chica, Texas, over local objections: littered bird nesting grounds with debris from rocket explosions and prevented local residents from access to their beach. 

“National supply of viable launch sites” is a backhand acknowledgement of the central role of the Space Force branch of the Pentagon in pushing for launch sites to be constructed. No rocket launch site would be financially viable without military spending, and the U.S. military plans to benefit from the investments of private industry as much as it can with so-called public-private partnerships.

At least two rocket firms in Maine have acknowledged they’ve already received funding from the U.S. Space Force: bluShift Aerospace in Brunswick and VALT Enterprizes in Presque Isle. 

But when the Maine Space Corporation was established, legislators were told that its purpose was research and development for civilian and educational purposes. They were explicitly told by the bill’s sponsor that there would be no military use.

This is also what locals in Kodiak, Alaska, were told when a rocket launch site was built there more than 20 years ago. Now, the site has expanded to multiple launch facilities and is most often used for Israeli military satellites and Pentagon payloads. Personnel are brought into Kodiak to oversee these launches, and the only local jobs generated are for custodians and security guards. 

Wealthy people looking to profit from using Maine’s natural resources is nothing new. The CMP corridor is being built through the North Woods — over the objections of a majority of Maine voters — in order to enrich CMP and Hydro Quebec.

As you and your neighbors struggle to fund schools and heat your homes amid soaring inflation, ask yourself who would really benefit from building a rocket launch site on the coast of Maine

October 25, 2025 Posted by | space travel, USA | Leave a comment

Straight from the horses’ mouths: Nuclear is a dead end.

By Ben Kritz, October 2, 2025, https://www.manilatimes.net/2025/10/02/opinion/columns/straight-fromthe-horses-mouths-nuclear-is-a-dead-end/2193114

ONE of the most authoritative and anticipated reports about the nuclear energy sector is the annual World Nuclear Industry Status Report (WNISR), which for close to 20 years has tracked the progress, or lack thereof, of the nuclear industry. It is, at least in my opinion, a better source for detailed information on the nuclear sector than the annual reports of the International Atomic Energy Agency (IAEA), because while the IAEA does provide completely reliable and detailed information, it provides a bit less than does the WNISR, and has an obvious positive bias toward nuclear energy.

The WNISR by contrast is completely neutral; even the bit of commentary that prefaces this year’s 589 pages of data and status updates confines itself to simply acknowledging the current reality of nuclear policy and activity, and leaves it to the audience to draw their own conclusions.

There are a few pieces of good news for nuclear enthusiasts in the 2025 WNISR. Nuclear power generation rose to 2,677 terawatt-hours in 2024, and generation capacity reached 369.4 gigawatts (GW). Those are both record highs, but on the other hand, they are both less than 1 percent higher than the previous records, and so are really not overwhelming evidence of a growing sector. One indication of that is that nuclear’s share of generating capacity declined slightly (by less than 1 percent) year on year, and is now at 9.0 percent. That is only about half its historic peak of 17.5 percent in 1996.

Other factoids that might encourage nuclear proponents are that there are three countries building their first nuclear plants — Bangladesh, Egypt and Turkey — all of which are being constructed and largely financed by Russia’s Rosatom. The number of reactor startups was higher than the number of shutdowns in 2024. Seven plants were brought online — three in China, and one each in France, the United Arab Emirates, the United States and India, while four were closed, two in Canada, and one each in Russia and Taiwan. At the end of 2024, there were 409 reactors operating worldwide (that number has since gone down by one this year), which were the same number as at the end of 2023. The number of operating reactors peaked in 2002 with 438, operated in 32 countries; since then, the sector has slowly declined. There are only 31 countries as of now, and the number of reactor closures across the past 20-odd years has been slightly higher than the number of startups.

For example, the WNISR notes that from 2005 to 2024, there were 104 startups and 101 closures, which might seem like a modest gain. But any nuclear expansion is solely attributable to China; in that time period, there were 51 startups and no closures in China. In the rest of the world, there was a net decline of 48 in the number of operating reactors, with a corresponding decline in generating capacity of 27 GW.

China has big numbers in everything because China is very big; in its broader energy mix, nuclear power is at best an afterthought, and is declining even there. Nuclear’s share in the total energy mix in China fell for the third straight year in 2024, down to 4.5 percent. While nuclear capacity did increase by 3.5 GW from a year earlier, it was overwhelmed by the growth in solar capacity, which increased by 278 GW. In China, since 2010, the output of nuclear has increased by a factor of six. But on the other hand, the output of solar increased by a factor of more than 800, and wind by a factor of 20. Renewables’ share of the energy mix increased from 18.7 percent in 2010 to 33.7 percent in 2024, or in other words, outpaced nuclear by 7.5 times.

Prospects for growth

The simple answer is that there aren’t any; some incremental gains here and there may be possible, but the idea that nuclear is the go-to solution for decarbonization is not at all supported by real-world trends. The first problem is that existing nuclear power is quickly reaching the end of its useful life. The WNISR notes that the average age of the presently operating power reactors has been increasing since 1984 and stands at 32.4 years as of mid-2025. The average age at closure of the 28 reactors permanently shut down between 2020 and 2024 was 43.2 years. The nuclear industry is going to have to expend increasing effort and resources in senior care for its aging plants just to maintain the status quo of stagnation and gradual slow decline.

Investment figures bear that out. Over the past decade, the WNISR notes that nuclear investment has been essentially stagnant, although not nonexistent; in the same time period, investment in renewables has increased by 21 times.

Apart from the three newcomers (Egypt, Bangladesh and Turkey) that are actually building reactors, the WNISR identifies 12 others with prospects for nuclear power sometime in the future, four of which are in Africa. It may come as a discouraging surprise to our own Department of Energy and nuclear cheerleaders here that the Philippines is not even mentioned.

In fact, the name “Philippines” appears exactly once in the 589 pages of the report, on a chart listing countries that have abandoned or suspended reactor constructions since 1970. But to be fair, the recent passage of the Philippine Nuclear Safety Act and its subsequent creation of an actual regulating body are recent developments, so the 2026 WNISR will probably include it.

None of the other countries noted are even close to beginning construction, or even seriously considering it. In fact, the World Nuclear Association, which is definitely an optimistic source of information, in a Sept. 19 report concluded that only one additional country besides those already building reactors — Poland — is likely to join the nuclear energy community within the next 15 years.

The WNISR’s overall conclusion kind of says it all: “2024 has seen an unprecedented boost in solar and battery capacity expansion driven by continuous significant cost decline. As energy markets are rapidly evolving, there are no signs of vigorous nuclear construction and the slow decline of nuclear power’s role in electricity generation continues.”

The Philippines’ nuclear aspirations, and likely those of any other country anywhere else, are clearly swimming against the tide. That does not make nuclear development impossible, but it almost certainly means that any development that is achieved will have much less impact than anticipated. And, nuclear being what it is, that impact will cost more and take longer to achieve than expected.

The broad picture painted by the WNISR brings us back to the conclusion of the Cato Institute assessment I discussed in the first part of this column on Tuesday, and bear in mind this is coming from a deeply conservative source: “The problem is not so much that money will be wasted on large numbers of uneconomic facilities. Rather, it is the opportunity costs of the time and human resources that are consumed by nuclear power and not available to other, quicker, more cost-effective and less financially risky options. We appear now to be facing serious risks from climate change, and there will not be a second chance if we fail to tackle it because too many resources are being consumed by an option — new nuclear — that will not work.”

October 21, 2025 Posted by | technology | Leave a comment

Amazon spills plan to nuke Washington…with X-Energy mini-reactors

COMMENT. At left -the picture of the as yet non-existent “small” nuclear project, to supply great steel towers -the so-called “cloud” of data.

The nuclear and AI industries abound with lies in their propaganda

Now they just need to get regulatory approval

Tobias Mann, The Register, Fri 17 Oct 2025

Despite technological and regulatory hurdles, Amazon remains convinced that small modular reactors (SMRs) are the answer to the cloud titan’s power woes.

Last fall, the house of Bezos announced a $500 million investment in SMR startup X-Energy. On Thursday, the e-tailer revealed that X-Energy’s Xe-100 SMR designs would eventually supply Washington State with “up to” 960 megawatts of clean energy.

“Eventually” is the key word here as construction isn’t expected to start until the end of the decade and the plants won’t begin operations until sometime in the 2030s.

The plan is to deploy the 80 megawatt reactors at a new facility called the Cascade Nuclear Energy Center outside Richland, Washington, in three phases, each totaling 320 megawatts of generative output. For context, xAI’s 200,000-GPU Colossus supercomputer uses roughly 300 megawatts of power when it is fully utilized. 

Amazon notes that X-Energy’s SMRs should be smaller, faster to deploy, and cheaper to operate than conventional pressurized water reactors. This is a common argument in support of the miniaturized nuclear power plants, but it’s worth noting that the tech hasn’t actually been proven out. In fact, higher-than-expected operating costs have already doomed one early SMR project.

And that’s not the only challenge facing X-Energy. The company’s SMR tech has yet to receive Nuclear Regulatory Commission approval, which is required before construction of the reactor itself can begin. But that’s not stopping Amazon from sharing 3D renders of what the power plant might look like when complete………………………………………………………………………………………………
https://www.theregister.com/2025/10/17/amazon_nuke_washington/

October 19, 2025 Posted by | technology, USA | Leave a comment

The Troubling Data on Data Centers

Below is an extract from a pro nuclear article. It was rather subtly pro-nuclear. But I decided not to give its rather dubious pro nuclear arguments any publicity on this ste.

One example – the author praises the “cheapness” of France’s nationalised nuclear power, ignoring its downside of debt and climate-accelerated shutdowns.

Nuclear Is Here To Save AI. But What About Your Energy Bills? October 12, 2025, Brian Boyle, The Daily Upside

A nuclear boom is directly downstream from the AI boom, with $350 billion in nuclear spending in the US planned by 2050, per Bloomberg.

The artificial intelligence revolution is officially upon us. If the abrupt improvement in your co-worker’s email grammar didn’t tip you off, the drastic increase in your power bill is a hard-to-miss clue. (And if your bill hasn’t changed much yet, consider yourself lucky.)

As the massive, power-hungry data centers that power AI’s expansion come online, they’re competing for power with everyone else. That’s driving up energy bills for industry and consumers alike, while testing the limits of US energy production capacity and stressing an aging power grid.

Silicon Valley has a solution: nuclear energy. Big Tech is investing heavily in the long-shunned (in the US, at least) energy source to power its AI moment, mostly in the form of so-called small nuclear reactors (SMRs), the next-gen version of nuclear tech that can (theoretically) be mass-produced and strategically deployed. (For the uninitiated, it might be helpful to think of SMRs as gas generators on radioactive steroids.) Now, a nuclear boom is directly downstream from the AI boom: According to a recent Bloomberg Intelligence report, soaring power demand from AI will spur $350 billion in nuclear spending in the US by 2050.

The US government, which views dominance in the AI sphere as crucial to continued economic and geopolitical dominance around the globe, is entirely on board. In a rare instance of bipartisan consensus, both the current and previous administrations have moved fast to cut red tape, overhaul oversight processes, and pour capital into the resurgent nuclear industry. 

“We’re in a very serious bind. We’ve already tapped out traditional oil and gas technologies. There’s an eight-, nine-year queue for diesel generators, the most expensive form of energy, and now also gas turbines,” Kevin Kong, founder and CEO of AI-driven nuclear compliance platform Everstar, told The Daily Upside. “Renewables are not dense enough … Data centers run 24/7, and are extremely power-dense. And so the only technology that’s left that was overlooked and under-invested in is nuclear.”

In other words, if we’re going to have an AI revolution, we’ll need plenty of nukes. But will the industry insulate Americans from rising energy bills? Maybe.

The Troubling Data on Data Centers

For years, experts had estimated energy demand growth in the years and decades to come based on banal drivers such as population growth, economic expansion and development of emerging economies, as well as the electrification of everything, including major industries like manufacturing and transportation. It would be predictable and hence manageable, they believed. 

Then came ChatGPT. Now? Most estimates predict that global energy demand will nearly double by 2050. A recent report from the International Energy Agency (IEA) found that over 50% of that growth will be driven by AI expansion. For example, a ChatGPT query requires roughly 10 times the energy, on average, needed for a Google search. To put it in even starker perspective, the IEA estimates that a typical AI-focused data center consumes as much electricity as 100,000 homes, while the largest such data centers consume 20 times that amount.

According to a recent Goldman Sachs report, data center power demand is expected to increase 160% by 2030 alone, and meeting 60% of that demand will require new energy generation capacity. Meanwhile, a report produced by Lawrence Berkeley National Laboratory and published by the Department of Energy estimates that data centers will consume more than 12% of total US electricity by 2028, up from 4.4% in 2023.

The triple-digit growth figures are already having a triple-digit impact on those suddenly, and sometimes unwillingly, competing with data centers for electricity. According to a recent Bloomberg analysis of energy data, monthly electricity costs in areas near data centers are now 267% higher than just five years ago, at the dawn of the AI age (that compares with a cumulative overall inflation rate of about 25%).

“Without mitigation, the data centers sucking up all the load is going to make things really expensive for the rest of Americans,” said David Crane, chief executive officer of Generate Capital…………………………………………………………………………………………………..

One Bubble After Another: While SMRs are likely to deliver consistent energy supplies to massive data centers, a valuable proposition in its own right, not everyone is convinced it will be delivered cheaply. 

According to data from Wood Mackenzie recently seen by the Financial Times, the “levelised cost of energy” for SMRs, or the cost for power that should be charged for the project to break even, will be around $182 per megawatt hour in 2030. That compares to $133 per megawatt-hour from traditional nuclear power plants, such as Vogtle, $126 for natural gas, and even less for wind and solar. https://www.thedailyupside.com/technology/artificial-intelligence/nuclear-is-here-to-save-ai-but-what-about-your-energy-bills/

October 15, 2025 Posted by | business and costs, technology | Leave a comment

Small reactors, big problems: the nuclear mirage behind AI’s energy hype


Enrique Dans, Medium.com, 12 Oct 25

In the debate over the energy infrastructure required for the rapid growth of AI, small (nuclear) modular reactors (SMEs)are being touted in some quarters as a reliable, dense and zero-carbon way to supply data centers and critical networks.

A seductive idea for industries looking to justify colossal investments, it also demands rigorous and critical scrutiny. After all, a nuclear reactor is a nuclear reactor, with inherent dangers, and multiplying the number of installations also multiplies the risk vectors. An SMR on a truck: what could possibly go wrong?

The promise of “safer”, “modular”, “quick to deploy” and “low carbon” energy doesn’t hold up in the face of history, economics, or risk analysis. Modular designs have been explored before, and they faced the same obstacles: uncontrollable costs, complex engineering, difficulties in scaling and operational problems. The simple truth is that small nuclear reactors can’t compete with renewables today. Instead, the arguments are based on political, financial and institutional motivations, fueled by a mentally ill person who hates renewables.

First, the technical and operational risks. A reactor, large or small, is based on fissile materials; radioactive, very hot and requiring complex cooling systemsThere are no………………………………………………………….. (Subscribers only) https://medium.com/enrique-dans/small-reactors-big-problems-the-nuclear-mirage-behind-ais-energy-hype-77f93a3a4460

October 14, 2025 Posted by | Small Modular Nuclear Reactors | Leave a comment

Peace is Possible – The Weaponization of Space with Bruce Gagnon.

Peace is Possible – The Weaponization of Space with Bruce Gagnon

West Hartford Community Interactive, 1 Oct 25

Joe Wasserman interviews Bruce Gagnon, Coordinator and co-founder of the Global Network Against Weapons & Nuclear Power in Space. https://www.youtube.com/watch?v=Y_ps6sJI1XM

October 10, 2025 Posted by | space travel, weapons and war | Leave a comment

US and investors gambling on unproven nuclear technology, warn experts

 The US government and investors have made a $9bn gamble on small nuclear
reactors to power the AI boom and lower emissions — but experts warn the
technology could prove too costly to be viable.

Data compiled by the FT
shows that since 2019, government agencies including the energy and defence
departments have committed over $6bn to developers of small modular
reactors (SMRs) through awards, loans and cost sharing agreements. Private
investment has also soared, with over $3bn raised in the same timeframe.

The technology promises a one-stop solution to data centres’ power needs
by providing clean, reliable and cheap electricity for companies to train
and run their AI models. Investor enthusiasm has lifted the share prices
and valuations of companies with little or no revenues or operating
projects.

“There’s a lot of cheerleading happening, but the amount of
capital that you need to cross the finish line is huge,” said Chris
Gadomski, head of nuclear research at BloombergNEF, which estimates data
centre power needs will more than double by 2035. “What I see happening
with SMRs and data centres reminds me of the internet boom and bust of the
early 2000s.”

 FT 5th Oct 2025, https://www.ft.com/content/8a18e722-3efa-404e-9f2a-709eed877f18

October 8, 2025 Posted by | business and costs, Small Modular Nuclear Reactors | Leave a comment

Can AI Solve the Nuclear Fusion Energy Puzzle?

By Haley Zaremba – Oil Price, Oct 05, 2025

  • Nuclear fusion holds the potential for clean, greenhouse gas-free baseload power, but challenges in controlling plasma have hindered its commercial viability.
  • Recent breakthroughs, particularly with AI tools like Diag2Diag, are significantly advancing fusion development by improving plasma monitoring and control, specifically addressing issues like Edge Localized Mode (ELM).
  • Despite these advancements, commercial nuclear fusion remains decades away, leading some experts to question whether it’s a realistic “silver bullet” solution for growing energy demands, especially from AI.

……………………………………………………………………………………………………………………… https://oilprice.com/Energy/Energy-General/Can-AI-Solve-the-Nuclear-Fusion-Energy-Puzzle.html

October 7, 2025 Posted by | technology | Leave a comment

Are We Waking Up Fast Enough to the Dangers of AI Militarism?

As we continue to be force-fed AI, the voting public needs to find a way to push back against this onslaught against both personal autonomy and the democratic process.

Tom Valovic, Common Dreams, 1 Oct 25

AI is everywhere these days. There’s no escape. And as geopolitical events appear to spiral out of control in the Ukraine and Gaza, it seems clear that AI, while theoretically a force for positive change, has become has become a worrisome accelerant to the volatility and destabilization that may lead us to once again thinking the unthinkable—in this case World War III.

The reckless and irresponsible pace of AI development badly needs a measure of moderation and wisdom that seems sorely lacking in both the technology and political spheres. Those who we have relied on to provide this in the past—leading academics, forward-thinking political figures, and various luminaries and thought leaders in popular culture—often seem to be missing in action in terms of loudly sounding the necessary alarms. Lately, however, and offering at least a shred of hope, we’re seeing more coverage in the mainstream press of the dangers of AI’s destructive potential.

To get a feel for perspectives on AI in a military context, it’s useful to start with an article that appeared in Wired magazine a few years ago, “The AI-Powered, Totally Autonomous Future of War Is Here.” This treatment practically gushed with excitement about the prospect of autonomous warfare using AI. It went on to discuss how Big Tech, the military, and the political establishment were increasingly aligning to promote the use of weaponized AI in a mad new AI-nuclear arms race. The article also provided a clear glimpse of the foolish transparency of the all-too-common Big Tech mantra that “it’s really dangerous but let’s do it anyway.”

More recently, we see supposed thought leaders like former Google CEO Eric Schmidt sounding the alarm about AI in warfare after, of course, being heavily instrumental in promoting it……………………

The acceleration of frenzied AI development has now been green-lit by the Trump administration with US Vice President JD Vance’s deep ties to Big Tech becoming more and more apparent. This position is easily parsed—full speed ahead. One of Trump’s first official acts was to announce the Stargate Project, a $500 billion investment in AI infrastructure. Both President Donald Trump and Vance have made their position crystal clear about not attempting in any way to slow down progress by developing AI guardrails and regulation even to the point of attempting to preclude states from enacting their own regulation as part of the so called “Big Beautiful Bill.”

Widening The Public Debate

……………………………………………………………………………………… The role of the military in developing most of the advanced technologies that have worked their way into modern society still remains beneath the threshold of public awareness. But in the current environment characterized by the unholy alliance between corporate and government power, there no longer seems to be an ethical counterweight to unleashing a Pandora’s box of seemingly out-of-control AI technologies for less than noble purposes.

That the AI conundrum has appeared in the midst of a burgeoning world polycrisis seems to point toward a larger-than-life existential crisis for humanity that’s been ominously predicted and portrayed in science fiction movies, literature, and popular culture for decades. Arguably, these were not just films for speculative entertainment but in current circumstances can be viewed as warnings from our collective unconscious that have largely gone unheeded. As we continue to be force-fed AI, the voting public needs to find a way to push back against this onslaught against both personal autonomy and the democratic process.

No one had the opportunity to vote on whether we want to live in a quasi-dystopian technocratic world where human control and agency is constantly being eroded. And now, of course, AI itself is upon us in full force, increasingly weaponized not only against nation-states but also against ordinary citizens. As Albert Einstein warned, “It has become appallingly obvious that our technology has exceeded our humanity.” In a troubling ironic twist, we know that Einstein played a strong role in developing the technology for nuclear weapons. And yet somehow, like J. Robert Oppenheimer, he eventually seemed to understand the deeper implications of what he helped to unleash.

Can we say the same about today’s AI CEOs and other self-appointed experts as they gleefully unleash this powerful force while at the same time casually proclaiming that they don’t really know if AI and AGI might actually spell the end of humanity and Planet Earth itself? https://www.commondreams.org/opinion/ai-militarism-dangers

October 4, 2025 Posted by | technology, weapons and war | Leave a comment

‘Life and death’: Penny Wong’s nuclear AI warning to UN Security Council

Nuclear weapons could be fired by artificial intelligence, Australia’s Foreign Affairs Minister has warned the United Nations.`

Blair Jackson, 26 Sept 25, https://www.news.com.au/technology/innovation/military/life-and-death-penny-wongs-nuclear-ai-warning-to-un-security-council/news-story/8ca47bc22b428922edb720dcfffe5458

Nuclear weapons could be fired by artificial intelligence, Australia’s Foreign Affairs Minister has warned the United Nations.

Speaking to the UN in New York on Thursday US time, Penny Wong issued a stark speech about technological advancements and armed conflict.

“AI’s potential use in nuclear weapons and unmanned systems challenges the future of humanity,” she said.

“Nuclear warfare has so far been constrained by human judgment, by leaders who bear responsibility and by human conscience. AI has no such concern, nor can it be held accountable.

“These weapons threaten to change war itself and they risk escalation without warning.”

Senator Wong has been with Prime Minister Anthony Albanese and Communications Minister Anika Wells at the UN this week, promoting Australia’s world-first under-16 social media ban.

Australia’s representatives have also been pushing to become one of 10 smaller nations to gain a 10-year non-permanent seat on the UN’s Security Council.

Senator Wong delivered the doomsday warning to the Security Council.

“Decisions of life and death must never be delegated to machines, and together we must set the rules and establish the norms,” she said.

“We must establish standards for the use of AI to demand it is safe, secure, responsible and ethical.

“To ensure AI transforms the tools of conflict and diplomacy for the better, the Security Council must lead by example – to strengthen international peace and security and ensure it is not undermined.”

Ukrainian President Volodymyr Zelenskyy delivered a similar warning to the UN’s General Assembly a day prior.

“It’s only a matter of time, not much, before drones are fighting drones, attacking critical infrastructure and targeting people all by themselves, fully autonomous and no human involved, except the few who control AI systems,” he said.

“We are now living through the most destructive arms race in human history because this time it includes artificial intelligence.”

September 28, 2025 Posted by | technology | Leave a comment

Underground data fortresses: the nuclear bunkers, mines and mountains being transformed to protect our ‘new gold’ from attack

The Conversation , 26 Sept 25 A.R.E. Taylor, Senior Lecturer in Communications, University of Exeter

It’s a sunny June day in southeast England. I’m driving along a quiet, rural road that stretches through the Kent countryside. The sun flashes through breaks in the hedgerow, offering glimpses of verdant crop fields and old farmhouses.

Thick hawthorn and brambles make it difficult to see the 10ft high razor-wire fence that encloses a large grassy mound. You’d never suspect that 100ft beneath the ground, a hi-tech cloud computing facility is whirring away, guarding the most valuable commodity of our age: digital data.

This subterranean data centre is located in a former nuclear bunker that was constructed in the early 1950s as a command-and-control centre for the Royal Air Force’s radar network. You can still see the decaying concrete plinths that the radar dish once sat upon. Personnel stationed in the bunker would have closely watched their screens for signs of nuclear missile-carrying aircraft.

After the end of the cold war, the bunker was purchased by a London-based internet security firm for use as an ultra-secure data centre. Today, the site is operated by the Cyberfort Group, a cybersecurity services provider.

I’m an anthropologist visiting the Cyberfort bunker as part of my ethnographic research exploring practices of “extreme” data storage. My work focuses on anxieties of data loss and the effort we take – or often forget to take – to back-up our data.

As an object of anthropological enquiry, the bunkered data centre continues the ancient human practice of storing precious relics in underground sites, like the tumuli and burial mounds of our ancestors, where tools, silver, gold and other treasures were interred.

The Cyberfort facility is one of many bunkers around the world that have now been repurposed as cloud storage spaces. Former bomb shelters in China, derelict Soviet command-and-control centres in Kyiv and abandoned Department of Defense bunkers across the United States have all been repackaged over the last two decades as “future-proof” data storage sites.

I’ve managed to secure permission to visit some of these high-security sites as part of my fieldwork, including Pionen, a former defence shelter in Stockholm, Sweden, which has attracted considerable media interest over the last two decades because it looks like the hi-tech lair of a James Bond villain.

Many abandoned mines and mountain caverns have also been re-engineered as digital data repositories, such as the Mount10 AG complex, which brands itself as the “Swiss Fort Knox” and has buried its operations within the Swiss Alps. Cold war-era information management company Iron Mountain operates an underground data centre 10 minutes from downtown Kansas City and another in a former limestone mine in Boyers, Pennsylvania.

The National Library of Norway stores its digital databanks in mountain vaults just south of the Arctic Circle, while a Svalbard coal mine was transformed into a data storage site by the data preservation company Piql. Known as the Arctic World Archive (AWA), this subterranean data preservation facility is modelled on the nearby Global Seed Vault.

……………………..Bunkers are architectural reflections of cultural anxieties. If nuclear bunkers once mirrored existential fears about atomic warfare, then today’s data bunkers speak to the emergence of a new existential threat endemic to digital society: the terrifying prospect of data loss.

………………………………………………………………… For governments, corporations and businesses, a severe data loss event – whether through theft, erasure or network failure – can have a significant impact on operations or even result in their collapse. The online services of high-profile companies like Jaguar and Marks & Spencer have recently been impacted by large-scale cyber-attacks that have left them struggling to operate, with systems shutdown and supply chains disrupted. But these companies have been comparatively lucky: a number of organisations had to permanently close down after major data loss events, such as the TravelEx ransomware attack in 2020, and the MediSecure and National Public Data breaches, both in 2024.

With the economic and societal impact of data loss growing, some businesses are turning to bunkers with the hope of avoiding a data loss doomsday scenario.

The concrete cloud

One of the first things visitors to the Cyberfort bunker encounter in the waiting area is a 3ft cylinder of concrete inside a glass display cabinet, showcasing the thickness of the data centre’s walls. The brute materiality of the bunkered data centre stands in stark contrast to the fluffy metaphor of the “cloud”, which is often used to discuss online data storage.

Data centres, sometimes known as “server farms”, are the buildings where cloud data is stored. When we transfer our data into the cloud, we are transferring it on to servers in a data centre (hence the meme “there is no cloud, just someone else’s computer”). Data centres typically take the form of windowless, warehouse-scale buildings containing hundreds of servers (pizza box-shaped computers) stored in cabinets that are arranged in aisles………………………………………………………….

We often think of the internet as an immaterial or ethereal realm that exists in an electronic non-place. Metaphors like the now retro-sounding cyberspace and, more recently, the cloud perpetuate this way of thinking.

But the cloud is a material infrastructure composed of thousands of miles of cables and rows upon rows of computing equipment. It always “touches the ground” somewhere, making it vulnerable to a range of non-cyber threats ………………………………………………………………………………….

Like any computer, servers generate a huge amount of heat when they are running, and must be stored in constantly air-conditioned rooms to ensure they do not overheat………………………………………………………………………

An average data centre consumes an estimated 200-terawatt hours of electricity each year. That’s around 1% of total global electricity demand, which is more than the national energy consumption of some countries. Many of these facilities are powered by non-renewable energy sources, and the data centre industry is expected to emit 2.5 billion tons of carbon dioxide by 2030.

In addition, to meet expectations for “uninterruptible” service levels, data centres rely on an array of fossil fuel-based back-up infrastructure – primarily diesel generators. …………………………

………….Amid hype and speculation about the rise of AI, which is leading to a boom in the construction of energy-hungry data centres, the carbon footprint of the industry is under increasing scrutiny…………………………..

For technology behemoths like Apple and Google, cloud storage is a key strategic avenue for long-term revenue growth. While the phones, laptops and other digital devices they make have limited lifespans, their cloud services offer potentially lifelong data storage. Apple and Google encourage us to perpetually hoard our data rather than delete it, because this locks us into their cloud subscription services, which become increasingly expensive the more storage we need.

Apple’s marketing for its cloud storage service, iCloud, encourages users to “take all the photos you want without worrying about space on your devices”. Google has made “archive” rather than “delete” the default option on Gmail. While this reduces the likelihood of us accidentally deleting an email, it also means we are steadily consuming more of our Gmail capacity, leading some to purchase more Google Drive storage space.

Cloud hoarders

It is also increasingly difficult to operate off-cloud. Internal storage space on our digital devices is dwindling as the cloud becomes the default storage option on the majority of digital products being developed. Users must pay a premium if they want more than the basic local storage on their laptop or smartphone. Ports to enable expandable, local storage – such as CD drives or SD card slots – are also being removed by tech manufacturers.

As our personal digital archives expand, our cloud storage needs will continue to grow over our lifetimes, as will the payments for more and more cloud storage space. And while we often imagine we will one day take the time to prune our accumulations of digital photos, files, and emails, that task is often indefinitely postponed. In the meantime, it is quicker and easier to simply purchase more cloud storage.

Many consumers simply use whichever cloud storage service is already pre-installed on their devices – often these are neither the cheapest nor most secure option. But once we commit to one provider, it is very difficult to move our data to another if we want a cheaper monthly storage rate, or simply want to switch – this requires investing in enough hard drives on which to download the data from one cloud provider and upload it to another. Not everyone is tech-savvy enough to do that…………………………………………. https://theconversation.com/underground-data-fortresses-the-nuclear-bunkers-mines-and-mountains-being-transformed-to-protect-our-new-gold-from-attack-262578

September 28, 2025 Posted by | Reference, technology | Leave a comment

Small Nuclear Reactors Will Not Save The Day

By Leon Stille – Sep 23, 2025, https://oilprice.com/Energy/Energy-General/Small-Nuclear-Reactors-Will-Not-Save-The-Day.html

  • SMR’s are being hailed as the perfect solution for large industrial power consumers.
  • SMRs are currently being marketed like they’re the iPhone of nuclear energy: smarter, smaller, cheaper, scalable.
  • Despite the hype, there are currently no SMR’s operating on a commercial scale.

You can feel the buzz: nuclear is back. Or so we’re told.

From Brussels to Washington, a new wave of enthusiasm for so-called Small Modular Reactors (SMRs) is sweeping through policy circles, think tanks, and energy startups. These compact, supposedly plug-and-play nuclear units are being hailed as the perfect solution to power data centers, feed artificial intelligence’s growing hunger, and backstop our energy transition with clean, stable electricity.

There’s just one problem. Actually, there are many. None of them small.

The hype cycle is in full spin

SMRs are currently being marketed like they’re the iPhone of nuclear energy: smarter, smaller, cheaper, scalable. A miracle solution for everything from remote grids to decarbonizing heavy industry and AI’s server farms. Countries like the U.S., Canada, and the UK have announced ambitious deployment plans. Major developers, including NuScale, Rolls-Royce SMR, GE Hitachi, and TerraPower, have painted glossy timelines with glowing promises.

Except the fine print tells a different story.

There are currently no operational commercial SMRs anywhere in the world. Not one. NuScale, the U.S. frontrunner, recently cancelled its flagship Utah project after costs ballooned to over $9,000 per kilowatt and no investors could be found. Even their CEO admitted no deployment would happen before 2030. Meanwhile, Rolls-Royce’s much-hyped SMR factory hasn’t produced a single bolt of steel yet.

So, we’re betting on a technology that doesn’t yet exist at commercial scale, won’t arrive in meaningful numbers before the 2030s, and would require thousands of units to significantly contribute to global energy demand. That’s not a strategy. That’s science fiction.

Big nuclear hasn’t exactly inspired confidence either

Even the large-scale projects that SMRs claim to “improve upon” are struggling. Take the UK’s Hinkley Point C, once heralded as the future of nuclear energy in Europe. It’s now twice as expensive as originally planned (over £46 billion), at least five years late, and facing ongoing construction delays. The French-backed EPR reactor design it’s based on has already been plagued with similar issues in Flamanville (France) and Olkiluoto (Finland), where completion took over a decade longer than promised and costs ballooned dramatically.

Let’s be honest: if any other energy technology was this unreliable on delivery, we’d laugh it out of the room.

Price floors for nuclear, and price ceilings for reason

In France and Finland, authorities have now agreed to guaranteed minimum prices for new nuclear power, effectively writing blank checks to ensure profitability for operators. In Finland, the recent deal sets the floor above €90/MWh for 20 years. Meanwhile, solar and wind regularly clear wholesale power auctions across Europe at €30–50/MWh, with even lower marginal costs.

Why, exactly, are we locking in decades of higher prices for a supposedly “market-based” energy future? It’s hard to see how this helps consumers, industries, or climate targets. Especially when these same nuclear plants will also require major grid upgrades, just like renewables, because any large-scale generator needs robust transmission capacity. So no efficiency win there either.

The SMR promise: too small, too late

Back to SMRs. Let’s suppose the best-case scenario plays out. A couple of designs clear regulatory approval by 2027–2028, construction starts in the early 2030s, and the first commercial units are online before 2035. Even then, the world would need to build and connect thousands of these small reactors within 10–15 years to displace a meaningful share of fossil generation. That’s a logistics nightmare, and we haven’t even discussed public acceptance, licensing bottlenecks, uranium supply, or waste management.

For perspective: in the time it takes to build a single SMR, solar, wind, and battery storage could be deployed 10 to 20 times over, for less money, with shorter lead times, and with no radioactive legacy.

And unlike nuclear, these technologies are modular today. They’re scalable now. They’ve proven themselves everywhere from the Australian outback to German rooftops and Californian substations.

The elephant in the reactor room: waste and risk

Nuclear fans love to stress how “safe” modern designs are. And yes, statistically speaking, nuclear energy is relatively safe per kilowatt-hour. But it’s also the only energy source with a non-zero risk of catastrophic failure and waste that stays toxic for thousands of years.

Why, exactly, would we take that risk when we have multiple clean energy options with zero risk of explosion and waste streams that are either recyclable or inert?

You don’t need to be a nuclear physicist to ask this: how is betting on high-cost, slow-deploying, risk-bearing, politically toxic infrastructure a better idea than wind, solar, and storage?

A footnote in the transition, not the headline

Let’s be clear: nuclear power will likely continue to play a role in some countries’ energy mixes. France and Sweden have legacy fleets. New projects may go ahead in China or South Korea, where costs are contained and planning is centralized. But for the majority of the world, especially countries trying to decarbonize fast, new nuclear is not the answer.

SMRs, despite their branding, will not save the day. They will be at best a niche, possibly a small contributor in specific applications like remote mines, military bases, or industrial clusters where no other solution works. That’s fine. But let’s stop pretending they’re some kind of energy silver bullet.

Final thoughts

We are in the decisive decade for climate action. Every euro, dollar, and yuan we invest must yield maximum emissions reduction per unit of time and cost. By that standard, SMRs fall flat. Nuclear power, small or large, is simply too expensive, too slow, too risky, and too narrow in its use case to lead the energy transition.

So let’s cool the reactor hype. Let’s focus instead on the technologies that are already winning: wind, solar, batteries, heat pumps, grid flexibility, green hydrogen. These are not dreams. They’re deploying by the gigawatt, today. SMRs are fascinating, yes. But when it comes to decarbonization, we need workhorses, not unicorns.

September 26, 2025 Posted by | Small Modular Nuclear Reactors, spinbuster | Leave a comment

UK to build 12 advanced “small ” modular nuclear plants in £10bn plan

COMMENT. A lovely glowing picture of this proposed wonderful source of electricity. But they’re very coy about telling us about the real cost of it all, the dangerous new radioactive fuel type, and the size of these so-called “small” nuclear reactors. And of course – not a mention of their radioactive wastes

COMMENT. A lovely glowing picture of this proposed wonderful source of electricity. But they’re very coy about telling us about the real cost of it all, the dangerous new radioactive fuel type, and the size of these so-called “small” nuclear reactors. And of course – not a mention of their radioactive wastes

Bernard Gray, 21 Sept 25, https://observer.co.uk/news/business/article/uk-to-build-12-nuclear-plants-in-10bn-plan

At a projected cost of £10bn – a rough estimate that could well balloon – two companies, Centrica, the parent of British Gas, and X-energy, a US startup, are proposing to develop and build a completely novel type of nuclear power plant.

The technical challenges for the two businesses are huge; the financial challenges perhaps even more so. Centrica is a large company with a big balance sheet, but it has limited nuclear experience. X-energy is a startup with some nuclear expertise, but which has raised only about $1bn in private capital and $1.2bn from the US energy department since the company was founded in 2009.

Far more money than that will be needed to complete the design, while the build of the fuel plant and demonstrator reactors will also cost an order of magnitude more.

Finishing the detailed design of both reactor and fuel plant, and getting them licensed to be built, is a work in progress but it will not be quick. X-energy has tried to boost its financial resources by partnering with potential users: the first is chemical producer Dow, for which X-energy is proposing to build a station to power a plant on the Texas Gulf coast.

Amazon has also invested in the company, and there is talk of power stations running Amazon datacentres in the Pacific north-west. The online retailer led investors in raising $700m to fund the next stage of X-energy’s development.

It is in this context that the Hartlepool proposal sits. The UK station would be the largest X-energy has attempted and Centrica has agreed to invest an undisclosed sum into the scheme.

The two companies are also seeking other equity investors. But even so, this will not be enough to fund even the completion of design development, let alone the build.

No UK government money is being proposed at this point, but Chris O’Shea, chief executive of Centrica, floated the idea last week that the project could be funded by a similar mechanism to the newly agreed Sizewell C reactor.

Under this plan, the £10bn that he says would be required to fund building would be added incrementally to all UK consumers’ electricity bills, to provide cashflow during construction. If that is what happens, then far from being an inward investment, UK consumers will have provided assistance to develop a US reactor design that it can sell elsewhere. The hurdles that have to be cleared to get to that point are, however, huge.

The design being proposed is unlike anything before seen on an electricity grid. Instead of the usual large fuel rods sitting in a highly pressurised water bath, this will use tennis-ball-sized pebbles of nuclear fuel to create the reaction, cooled by a flow of helium.

The idea for this kind of power station has been around for more than half a century, but it has never before been used in a commercial operation. It has some advantages over normal water-cooled reactors. The helium coolant does not pick up radioactivity so, unlike water, the design does not spread radioactivity beyond the fuel pebbles.

The pebbles are composed of agglomerations of much smaller ball bearings, each of which is like a Russian doll: shells within shells. The composition of these allows the fuel to act as its own barrier, stopping it melting and avoiding the need for a thick steel pressure cooker to make sure that any accident does not cause a huge environmental disaster, such as those at Chornobyl or Fukushima.

However, there are technical difficulties that have stopped this design being used before. The fuel is extremely complex and expensive to make. Some of the materials required are very scarce, including the nuclear component itself, which would mostly be available from Russia. It is far from clear that this kind of reactor can be commercially competitive against more traditional designs.

September 25, 2025 Posted by | technology, UK | Leave a comment

Trump’s nuclear ‘renaissance’ rests on risky plan for radioactive waste

The administration goes all-in on recycling spent fuel despite a history of spectacular mishaps, including an unintentional atom bomb.

By Evan Halper, 23 Sept 25, https://www.washingtonpost.com/business/2025/09/22/trump-nuclear-waste-recycling-risk/

The Trump administration’s plan to fast-track construction of new commercial nuclearreactors to address a power cruncharound the country leans heavily on a small group of start-ups trumpeting a bold claim: that they can make almost all of these operations’ radioactive waste disappear.

That effort is already underway, with a company called Oklo announcing this month that it will spend $1.7 billionto build an “Advanced Fuel Center” made upof shiny, futuristic buildings on a Tennessee plot where uranium was enriched for the Manhattan Project more than 80 years ago. The first phase of the development, to be completed in the next five to seven years, will use nascent recycling machinery to spin radioactive reactor waste into fresh, usable fuel for plants.

Industry and administration officials also plan to recycle into reactor fuel plutonium retrieved from dismantled nuclear weapons, one of the most dangerous materials on the planet. The projects follow a decades-long pursuit of nuclear energy recycling in the U.S. with a history of spectacular failures, including inadvertently helping a renegade nation build an atomic bomb.

Even as some prominent nuclear scientists warn that Oklo and other start-ups are glossing over major shortcomings in their technology, the companies argue the effort is key to securing enough energy to beat China in artificial intelligence innovation.

Oklo presents nuclear recycling as a tidy process: Waste gets reformulated into fuel, the nuisance of spent-fuel stockpiles goes away, and a small amount of unusable radioactive material is safely buried, perhaps in compact canisters tubed thousands of feet into the Earth’s crust.

“We’re moving forward to actually bring this to scale and realizing the benefits of it,” said Oklo CEO Jacob DeWitte.

Nonproliferation groups and prominent nuclear scholarsoppose those plans. They say neither the companies nor the administration has shared the science backing the claim that recycling nuclear fuel at commercial scale using current industry techniques is safe or practical.

But the details that are public so far, experts say, don’t seem to break new ground.

“These are the same technologies that were developed and rejected decades ago,” said Ross Matzkin-Bridger, a senior adviser at the Energy Department during the Biden administration who now heads the Nuclear Materials Security Program at the nonprofit Nuclear Threat Initiative. “They have been rebranded with new names and slight tweaks, but they still have the same problems. The only thing new is misleading narratives that they have solved the safety, security and waste-management issues that make these technologies unworkable.”

If recycling spent fuel is possible, it would solve a real problem.Some 90,000 metric tons of radioactive spent fuel sits mostly in casks outside operating and retired plants. Were it all in one place, storing it could require a facility sprawling dozens of acres.

Spent nuclear fuel storage sites

More than 90,000 metric tons of radioactive spent fuel from commercial reactors sits in storage containers scattered across the country on the properties of the nation’s operating and retired nuclear plants.

“All of that spent uranium fuel from our reactors today is just a growing liability for our country,” Energy Secretary Chris Wright said at a congressional hearing in May. Calling it “a growing burden,” he said, “A lot of this waste and burden right now could actually be fuel and could be of value to next-generation reactors.”

Days later, President Donald Trump signed an executive order calling for the quadrupling of nuclear power in the U.S. and directing his Cabinet to “utilize all available legal authorities” to enable large-scale recycling of nuclear waste. Meeting that goal requires deployment of hundreds of new reactors in communities across the country.

DeWitte,Oklo’s CEO, was in the Oval Office for the signing. Before becoming energy secretary, Wright sat on Oklo’s board. He resigned in February and forfeited his unvested shares in the firm. He pledged in his government ethics disclosures to “not participate personally and substantially” in any government matters involving Oklo.

Both Oklo’s and Curio’s methods involve putting either spent fuel rodsor material recovered from theminto molten salt and using an electric current to separate out usable fuel. The technique, called “pyroprocessing,” was first developed in the Argonne National Laboratory in the 1960s, but worries about the immense cost and the risks that the process would create weapons-grade materials kept it from being deployed commercially.

Curio also converts uranium directly from spent fuel rods into a gas it says can be enriched into fuel.

DeWitte argues that the recycling process can now be completed more safely and affordably,in part because it could be used in a new generation of nuclear reactors that would not require as high a level of fuel purity as the existing fleet does. Oklo and Curioalso say new safeguards make the technology impractical for weapons production, a central claim that critics say is not backed by the research they’ve seen.

“We didn’t try to go about doing this the way that others have looked at this and which hasn’t really worked out well in the past,” said DeWitte. Earlier commercial efforts separated out usable fuel from spent rods using acid instead of molten salt, a process the start-ups say is more costly and environmentally harmful.

The advanced reactors Oklo hopes to fuel don’t yet exist in the United States. Only Russia and China have such commercial “generation IV” reactors, at deeply subsidized demonstration plants. Test reactors have been built in the U.S. and in Britain, but cost overruns and engineering setbacks have long scuttled plans to bring them to market and forced developers to push back target dates for their projects. Oklo is now attempting to build the first such commercially viable reactor at the Idaho National Laboratory by late 2027.

More than 90 percent of the energy innuclear fuel rods currently goes to waste because conventional reactors cannot extract it before it becomes mechanically useless, according to the Energy Department. Promoters of recycling argue that is like building a Porsche and junking it after one lap around the track. Skeptics have their own car metaphor: They argue that the latest iteration of the technology is just a new paint job on the same old, un-roadworthy jalopy.

Those concerns are echoed in a letter that 17 prominent nuclear scholars, nongovernmental organization leaders and former nuclear regulators sent to congressional committee chairs in July, warning that the U.S. could “unintentionally foster the spread of sensitive nuclear weapons-related technology.”

The United States largely abandoned efforts to recycle waste for civilian reactors during the Carter administration, after technology shared with India was used by that country to create its first nuclear weapon, according to Frank von Hippel, co-founder of the Program on Science and Global Security at Princeton University. The recycling machinery the U.S. helped India build through the “Atoms for Peace” program enabled scientists there to separate plutonium from spent reactor fuel, he said, a key step to making a bomb.

The companies now promoting recycling have launched a public relations blitz to convince lawmakers and the public that those risks are obsolete, despite experts like von Hippel arguing otherwise.

At Curio’s headquarters in Washington, an office decorated with mid-century nuclear posters and other artifacts from the atomic era’s heyday, CEO Edward McGinnis explained his company’s solution.

“We want to make sure that we have a security barrier,” McGinnis, who was a top nuclear and nonproliferation adviser in previous administrations, said as he walked a reporter through a model of the technology. “It is self-protecting. If you attempted to get to that plutonium to use it for bad purposes, you’d probably die trying.”

The industry has won over the Trump administration.

“A couple years ago, we would have never thought about using plutonium in reactors,” Bradley Williams, the lead for energy policy at the Idaho National Laboratory, where the administration is pursuing recycling research in partnership with companies, said at a recent industry event promoting recycling. “Now it might be a necessity.”

He said the challenge of producing enough fuel to power all the new reactors needed to meet America’s surging demand for energymay require it, as the nation seeks to win a global race to develop artificial intelligence and revive its manufacturing sector. “If the U.S. is going to quadruple nuclear production by 2050, fuel availability is quickly becoming the key issue,” Williams said.

“Fuel availability and energy security are the new national security interest and our focus in light of [competition with] Russia and China,” he said. “Nonproliferation is something we continue to worry about. But I’d argue that most of the world is more worried about keeping the lights on right now, and they’ll use whatever fuel they can get, and we might need to use every fuel we can get.”

That enthusiasm has spread to the states. Curio, which is also prospecting for a site to build a football-field-size spent-fuel recycling plant where nuclear waste would be shipped from around the nation, says officials in several states are courting the firm.

It’s a marked turnabout from the first Trump administration, which pulled the plug in 2018 on a planned plutonium recycling facility in South Carolina after nearly $6 billion in tax dollars was spent on building it. The project’s cost had more than tripled by then, and its estimated completion date, according to the Government Accountability Office, had been extended to as late as 2048 — “a potential delay of nearly 32 years.”

Britain invested decades in a project intended to recycle uranium and plutonium for the type of next-generation nuclear reactors Curio and Oklo are now targeting.

But the new reactors did not work out as planned, beset by engineering challenges and cost overruns. And the recycling systems were constantly breaking down. By the early 2000s, it was significantly more expensive to try to recycle spent fuel in the U.K. than to dispose of it at storage facilities. As a result of the failed recycling efforts, the nation was left with one of the world’s largest stockpiles of plutonium, and no place to put it.

Japan has had similar problems. A facility it planned to open in the 1990s is still not producing fuel, after its cost exploded to $27 billion. France, which uses an acid process to recycle spent fuel on a large scale, has had more success. But, according to nuclear energy economists, it requiresbillions of dollars of subsidies and highly secure facilities to keep plutonium from getting into the wrong hands.

The administration projects confidence those issues are being solved, arguing that perfecting the technology is a national imperative at a time when the U.S. is growing ever more desperate for solutions to its power crunch and its nuclear waste problem.

“The idea that it will be more politically acceptable to build reprocessing plants that are handling intensively radioactive materials, and that also require their own waste repository, doesn’t make any sense to me,” said Matthew Bunn, a nuclear and energy policy scholar at Harvard.

States courting the projects are largely ignoring such warnings. Rep. Chuck Fleischmann, a Republican from Tennessee who co-chairs the House Nuclear Cleanup Caucus, said Oklo is just one of several recycling outfits looking to locate in his district, and he welcomes the interest. He’s convinced that the technology is no longer risky.

Utah is also positioning to go all-in, after the state’s Office of Energy Development declared in a report that “the risks of recycling are primarily political in nature, all technical risks can and already are being navigated safely around the world.” -[???]

Curio’s McGinnis got little pushback from lawmakers there when he made his pitch at a legislative hearing last fall. Following his presentation, Utah state Sen. David P. Hinkins, a Republican from Orangeville, pronounced: “You’re welcome here.”

September 24, 2025 Posted by | technology, USA | Leave a comment