The emerging AI battlespace: Counter-AI threats to AI-powered satellite remote sensing analysis

Meanwhile, it is crucial to foster a culture of skepticism toward AI. The success of generative AI models such as ChatGPT and DeepSeek has led to the misguided belief that AI understands the world similarly to humans and can make superior and quicker decisions based on logical reasoning. This notion is unfounded:
Bulletin, By Jingjie He | May 13, 2026
mote sensing is a data collection technique that enables the detection and monitoring of physical characteristics of target objects or areas. It is achieved by measuring reflected and emitted radiation from the targets, using optical, radar, light detection and ranging (LiDAR), thermal, multispectral, or hyperspectral sensors deployed on various platforms, including satellites, aircraft, and unmanned aerial vehicles, among others. The acquired data is generally visualized as imagery from an overhead perspective (Campbell, Wynne, and Thomas 2022, 3-23).
Advances in satellite remote sensing and the deployment of satellite constellations have enabled near-persistent Earth observation, which has allowed for significant applications in international security, particularly in arms control and nonproliferation. But challenges remain in processing and analyzing the vast volumes of remote sensing data, primarily due to the reliance on manual analysis by highly trained experts.
Manual analysis faces three key limitations. First, organizations often lack the manpower required to provide comprehensive analytical coverage of remote sensing data. Analyzing satellite imagery requires technical expertise and practical experience, making real-time analysis of large datasets impractical. Second, human analysts may struggle to identify subtle patterns or anomalies, especially in low-resolution images. Even in high-resolution imagery, cognitive biases and target insensitivity may cause analysts to overlook critical information. Third, remote sensing analysis can be serendipitous, with analysts reviewing imagery without a clear sense of what to look for, potentially missing important details.
To address these limitations, researchers have turned to artificial intelligence (AI) and machine learning to analyze satellite imagery at scale. These technologies enable finer granularity, greater accuracy, higher efficiency, and better coverage. But the integration of AI and geospatial science also introduces new challenges, as AI systems can be vulnerable to manipulation through counter-AI techniques.
This article identifies emerging counter-AI threats to satellite imagery analysis and proposes a comprehensive defense framework. It also argues that arms control and nonproliferation missions are not solitary pursuits for seekers but rather dynamic hider-seeker games, where AI functions as both a force and threat multiplier. Adversarial AI attacks—leveraging both digital and physical-world tactics—can be strategically employed to achieve counter-AI objectives, undermining the reliability of AI-driven satellite imagery analyses.
To mitigate these risks, a robust defense framework should encompass five core components: stringent access and quality control for data and models, the integration of robustness into AI frameworks, enhancements to system monitoring capabilities, strengthening cross-sectoral knowledge sharing and threat awareness, and incorporating adaptability and resilience into risk management strategies.
The AI-driven satellite remote sensing revolution
Satellite remote sensing is a powerful tool that can identify objects, detect changes (e.g., facility construction or destruction), and track moving objects (e.g., wartime maneuvers and delivery systems) (Patton et al. 2016). The integration of computer vision, which employs AI to acquire, process, and analyze digital visual data, is revolutionizing the way remote sensing data is interpreted and used.
In particular, AI-driven satellite remote sensing is transforming arms control, nonproliferation, and peacekeeping missions. For example, Amnesty International, in collaboration with Element AI and 28,600 volunteers, developed tools to automatically analyze satellite imagery for monitoring conflicts in Darfur (Cornebise et al. 2018). Palantir Technologies has created MetaConstellation, an AI-powered software for satellite imagery analysis, which has enabled the United States and its allies to automate port monitoring and global submarine deployment tracking (Palantir n.d.). In a joint project with the defense intelligence provider Jane’s, Stanford University, and BlackSky, a satellite imagery provider, the space data analysis company Orbital Insight applied machine learning to assist in the identification of a potential centrifuge assembly facility under construction in Iran (Janes 2021). The US Oak Ridge National Laboratory (2023) also employs AI for applications such as image de-hazing, object counting, and facility function classification. With the precipitous growth of geospatial data, the AI-driven revolution in satellite remote sensing is poised for further acceleration.
Typology of counter-AI attacks
The increasing use of AI-powered satellite remote sensing presents significant security risks. Four primary categories of counter-AI attacks to satellite imagery analysis require attention: data poisoning, model evasion, data inference, and model extraction (see Table 1 below on original).
Data poisoning. Data poisoning attacks aim to contaminate AI models during their training phases by modifying training data. Adversarial artifacts are injected into the data used to train machine learning models, leading to the creation of contaminated models that yield false classifications………………………………………………….
Model Evasion. Model evasion threats are designed to confuse or evade well-trained models by inserting adversarial perturbations—that is, small changes that humans may not be able to perceive—in data that is to be evaluated via machine learning……………………………………………………………………………………..
The potential military applications of adversarial camouflages have attracted considerable interest from researchers. However, the security implications of this technology in satellite remote sensing still require thorough investigation. In addition to evading models designed for satellite imagery analysis, adversarial camouflage could theoretically create decoys, resulting in false alarms that may overwhelm remote sensing systems, particularly when tracking moving objects.
Data Inference. Data inference threats involve attempts to unveil and steal the training data used by an ML model, which can lead to leakage of sensitive information and intelligence……………………………………………………………….
Model Extraction. Model extraction attacks aim at duplicating the functionality of a victim model. In this type of attack, a malicious actor seeks to infer the architecture and parameters of the victim model and subsequently trains a surrogate model using a dataset comprised of inputs and outputs obtained from repeated queries to the victim model. Unlike other types of counter-AI attacks, model extraction specifically targets black-box ML models, whose internal workings are not interpretable by humans…………………………………………………………………….
Prospects for a defense framework
The development of effective countermeasures against counter-AI attacks in satellite imagery analysis is of critical importance. A five-dimensional defense framework could effectively manage and mitigate counter-AI threats…………………………………………………………………………………………………………………………………………………………………………………
Meanwhile, it is crucial to foster a culture of skepticism toward AI. The success of generative AI models such as ChatGPT and DeepSeek has led to the misguided belief that AI understands the world similarly to humans and can make superior and quicker decisions based on logical reasoning. This notion is unfounded: The apparent reasoning of machines is at this point not genuine or reliable; instead, it is based on probabilistic pattern matching derived from extensive training data (Jiang et al., 2024; Mirzadeh et al., 2024; Shi et al., 2023). Consequently, humanizing AI can be detrimental, as it limits our ability to think critically and challenge the models when human judgment diverges from machine conclusions. It is essential to promote knowledge about machine learning’s limitations and to foster a culture of skepticism towards AI………………………………………………………………………………………………………………………………………………………………………………………………. https://thebulletin.org/premium/2026-05/the-emerging-ai-battlespace-counter-ai-threats-to-ai-powered-satellite-remote-sensing-analysis/?utm_source=ActiveCampaign&utm_medium=email&utm_content=The%20emerging%20AI%20battlespace&utm_campaign=20260702%20Thursday%20Newsletter
SGE unveils plans for 4.2GW UK Small Modular Reactor fleet
News provided by SGE 01 Jul, 2026, https://www.prnewswire.co.uk/news-releases/sge-unveils-plans-for-4-2gw-uk-small-modular-reactor-fleet-302816135.html
Programme of 14 Small Modular Nuclear Reactors could accelerate UK new nuclear and power almost eight million UK homes
LONDON, July 2, 2026 /PRNewswire/ — SGE, a European Small Modular Reactor (SMR) development and investment platform, yesterday announced its plans to build fourteen GE Vernova Hitachi BWRX-300 Small Modular Reactors on three sites in the UK. The deployment team includes SGE, GE Vernova Hitachi Nuclear Energy, Samsung C&T, Laing O’Rourke, Aecon Group Inc., Google Cloud, Fermi Development, Etara and an experienced nuclear operator.
The company has submitted an application under the UK’s Advanced Nuclear Framework (ANF) to develop a combined 4.2GW fleet which could deliver enough clean power for 11% of UK power demand or equivalent to an estimated almost eight million homes for at least sixty years. To support this ambition, SGE has established SGE SMR UK Limited as its dedicated UK-based project vehicle.
SGE’s proposal reflects a fleet-based development model, centred on repeatable deployment at scale. The project is targeting three multi-unit sites, the first to host six BWRX-300 units, with two further sites to follow in quick succession. In total, the programme represents a significant addition to the UK’s future nuclear capacity and supports the country’s long-term energy security, clean power and industrial growth ambitions.
The UK project builds on significant regulatory groundwork already in place for the BWRX-300, a tenth generation, proven technology that draws on the experience of 67 successful reactor deployments. The technology is under licensed construction in Canada and is on schedule to be the first SMR to operate in the OECD. In December 2025, the BWRX-300 successfully completed Step 2 of the UK’s Generic Design Assessment.
The partnership brings together proven reactor technology, significant project development experience, industrial capability and supply chain expertise and financing structure experience to support the deployment of the BWRX-300 in the UK. SGE is presenting a privately financed, commercially-led investment, supported by strong delivery partners. SGE plans to deploy under a Contract for Difference framework with National Wealth Fund engagement, meaning there will be no charges to consumers prior to operations.
Michał Sołowow, Founder of SGE, said: “We are focused on delivering efficient, safe, affordable, and clean nuclear energy power at fleet scale. The UK is home to one of the world’s most experienced nuclear workforce and the British Government has provided a clear path to market with the Advanced Nuclear Framework. Because of this, I am confident we will set a new standard for nuclear development by combining our disruptive business model with the BWRX-300’s tenth generation proven technology. We will rely strongly on the UK supply chain; it is a critical element for our project. Our project will create a distinct competitive advantage for UK economy.”
Rafał Kasprów, CEO of SGE, said: “The submission of our application under the Advanced Nuclear Framework marks a major milestone in our ambition to develop a fleet of BWRX-300 small modular reactors across the UK and the European Union. The United Kingdom is one of Europe’s most important and capable nuclear markets, with a highly skilled workforce, a strong industrial base, and a strategic need to lead the next generation of nuclear deployment. With a clear requirement for substantial new nuclear capacity over the coming decades, we believe our approach can make a meaningful contribution at scale. Standardisation, repetition, modularisation, and a fleet deployment strategy are the most effective ways to deliver new nuclear projects successfully, reducing costs, construction risk, and delivery times. We are committed to working with UK partners to provide secure, affordable, and clean electricity to millions of British households for generations to come.”
Jason Cooper, CEO of GE Vernova Hitachi Nuclear Energy, said: “SGE’s vision reflects the growing momentum behind new nuclear across Europe and the critical role SMRs can play in strengthening energy security while delivering reliable, lower-carbon electricity. With construction already underway at the Darlington New Nuclear Project in Ontario, Canada, the first commercial-scale SMR under construction in the Western world, the BWRX-300 offers the confidence that comes from real project execution. We are proud to support SGE as they pursue this important opportunity in the UK.”
John O’Connor, Group Commercial Director of Laing O’Rourke, said: “Laing O’Rourke brings the power of its nuclear experience and pioneering industrialised construction methods to the development of Small Modular Reactors, like this programme, of which we are pleased to play a part. We are applying lessons learned from the use of advanced manufacturing in the construction of large-scale and other complex infrastructure to boost safety and certainty for our partners and clients.”
Aaron Johnson, Senior Vice President, Nuclear, Aecon Group Inc., said: “Aecon is proud to serve as a leading partner on Ontario Power Generation’s Darlington New Nuclear Project, supporting the first-of-a-kind BWRX-300 deployment in Canada. Drawing on deep expertise in construction management, advanced automation, fabrication, and modularization, Aecon is helping to drive meaningful improvements in safety, quality, schedule certainty, and cost efficiency. Early involvement in this landmark project positions Aecon to leverage first-of-a-kind experience and tailor proven approaches for SGE in the UK and in other international markets. We are building capabilities and insights that will enable us to support efficient and scalable deployment across North America and in global markets, including the UK.”
SGE anticipates this project will enter the Advanced Nuclear Pipeline in November 2026, with site selection and government support scheme negotiations completed in the first half of 2027; after which major investment, site preparation and licensing work would begin within approximately a year, with first commercial operation of the first unit targeted for 2034.
Media contact
Paulina Chorazewska
SGE
Communications Director
+48 539 992 967
paulina.chorazewska@sge.eu
As UK’s Prime Minister fades away, will his beloved Small Nuclear Reactor dream fade too?

5 July 2026, https://theaimn.net/as-uks-prime-minister-fades-away-will-his-beloved-small-nuclear-reactor-dream-fade-too/
As soon as mid-July, Sir Keir Starmer is expected to finally quit his job as British Prime Minister. He’s not very popular, either within his own party, or with the general public. Labour’s previous popular leader, Jeremy Corbyn, opposed nuclear power. Soon after coming to power, Starmer called for tech companies to work alongside the government’s Great British Energy – Nuclear, to build SMRs to power energy-intensive AI data centres across Britain. Starmer might be hoping to be, later on, renowned for his legacy in revolutionising British energy systems, and producing a glorious renaissance for the global nuclear industry.
But possibly not.
“I say: build, baby, build,” – Starmer’s theme on Small Nuclear Reactors looks now, on the face of it, to be a resounding winner for Britain on the global nuclear scene. Why? Because… haven’t you heard? It is all over the British press that the UK is to get a fleet of SMRs with a multi-billion dollar “privately financed” scheme (helped just a bit by the government), to start generating in 2034.
SGE is a European Small Modular Reactor (SMR) development and investment platform. Founded by Polish billionaire Michał Sołowow, SGE has plans for SMR developments across Europe. On July 1st SGE announced in glowing terms, its UK plans for “delivering efficient, safe, affordable, and clean nuclear energy power at fleet scale.” It has established a consortium, SGE SMR UK Limited, as its dedicated UK-based project vehicle.
SGE hopes to use the GE Vernova Hitachi BWRX-300 design, to build under the government’s advanced nuclear framework (which was initiated by Starmer in February after the government promised to rip up “archaic rules” and slash regulations to “get Britain building”). SGE boasts that this SMR design is a “proven technology,” but it’s really a smaller, and as yet untested, version of the large boiling water nuclear reactor.
Where’s the money coming from?
The plan is to put in £35bn of private capital to build 14 small modular nuclear reactors on three sites across the UK. The consortium SGE SMR UK consists of SGE (formerly Synthos Green Energy), GE Vernova, Hitachi Nuclear, Samsung C&T, Laing O’Rourke, Aecon Group, Google Cloud, Fermi Development, and Etara. The biggest investor presumably is the Polish company.
Under the National Wealth Fund, Great British Energy – Nuclear (GBE-N) set up its Small Modular Reactor (SMR) Technical Partner contract (TP Contract) as a way for the government to help fund SMR development. It initially forecast that it may need £20bn to cover the cost of the (TP) Contract. “GBE-N has ultimately decided to award only one TP Contract and the contract award notice value reflects this.”
SGE plans to deploy under a Contract for Difference framework with National Wealth Fund engagement. I know that the contract for difference scheme means a fixed price for electricity bills once the project begins generating electricity. If the market price is below the fixed price, the government tops up the payment to the company. I don’t know what the National Wealth Fund engagement means, and I suspect that I’m not the only one puzzled about this.
In May 2026 Great British Energy – Nuclear (GBE-N) announced that Rolls-Royce SMR has been awarded Stage 1 of its Small Modular Reactor (SMR) Technical Partner contract (TP Contract). Stage 1 has a “forecast” price of £359M. A furtherr £8.17bn is estimated for the second delivery phase. Rolls Royce expects the SMRs to start operating in the mid 2030s.
So how much of the tax-payers’ £20bn is Rolls Royce going to get? And is SGE SMR UK going to get some too, and if so, how much? Or is the Polish entrepreneur’s SGE SMR UK truly really going to go it alone – with private financing?
Mysterious unanswered questions
Through the Freedom of Information Act, The New Civil Engineer requested some detail on the breakdown of the TP Contract award ‘s available £20bn. Great British Energy – Nuclear ‘s reply was – “GBE-N does not hold the information you have requested.”
Given the nuclear industry’s notorious history of delays and cost overruns, it’s pretty important to know how much each of these competing SMR projects is likely to cost, how long each would really take to come into operation, and how much the tax-payer will have to cough up.
What a complicated mess!
In 2023 the UK joined enthusiastically with world leaders in The Declaration to Triple Nuclear Energy by 2050. The Starmer Labour government took this up with zeal, and the message has been reinforced by academia and the media. Several UK universities have jumped on the nuclear bandwagon. Just this week, the Manchester University announced:
The University of Manchester and United Kingdom National Nuclear Laboratory (UKNNL) have signed a Memorandum of Understanding (MoU) formalising a wide-ranging partnership to advance nuclear science, grow the UK’s nuclear workforce, and strengthen the country’s position as a global leader in nuclear technology.
The UK media, except for The Guardian and New Civil Engineer, is ecstatically regurgitating nuclear lobby handouts. On July 2nd we have excited and positive articles on the SGE SMR UK project – from The Times, Telegraph, PR Newswire, Energy Live, Business Green, as well as from leading international news media. This privately-funded SMR project is a global first.
The New Civil Engineer is peskily pursuing its search for information on the UK government’s planned funding of small nuclear reactors, while the rest of them continue applauding this small nuclear fantasy.
I’m not here to push the points that SMRs are not cheap, not proven, not safe, not clean, not environmentally beneficial, not free of toxic wastes, and not actually in existence. Plenty of economists and scientists have made those assessments. Is the SGE UK thing going to really happen? Or is the Rolls Royce SMR thing going to beat it? When and where are these reactors going to operate? I’m just wondering about – for how long the UK pro SMR charade is going to play. Now that the leading actor Keir Starmer is about to bow out, will the whole performance have a very short season indeed?
Billionaire to invest £35bn in small modular nuclear reactors rollout across UK

Consortium led by Michał Sołowow planning enough SMRs to power equivalent of 8m homes for more than 60 years.
Jillian Ambrose, 2 July 26
A consortium led by the billionaire industrialist Michał Sołowow has announced plans to build 14 small modular nuclear reactors on three sites across the UK, including the location of a former nuclear plant in Gloucestershire..
The Polish entrepreneur and rally driver plans to use £35bn of private capital to roll out enough small modular reactors (SMRs) to power the equivalent of 8m UK homes for more than 60 years, or even power datacentre investments alongside Google.
Sołowow’s nuclear development company, SGE, plans to make the “significant investment” of between £2.2bn to £2.5bn in each 300 megawatt reactor alongside a string of industrial partners including the US manufacturer GE Vernova and Japanese industrial conglomerate Hitachi, which are responsible for the design.
The consortium, known as SGE SMR, hopes to secure three sites for the boiling water reactors (BWRs) by this time next year as well as a government support contract which would guarantee a “competitive” price for its electricity once it starts generating in 2034.
It has not disclosed which sites it hopes to use for the GE Vernova Hitachi BWRX-300 design, or which energy company would be the operator. However, the Guardian understands the consortium has submitted an application to use the Oldbury site in south Gloucestershire which was earmarked earlier this year for the development of SMRs under the government’s advanced nuclear framework.
Sołowow said the government’s framework, which aims to fasttrack the rollout of nuclear technologies, had created “a clear path to market” in the “home to one of the world’s most experienced nuclear workforces”.
Because of this, I am confident we will set a new standard for nuclear development by combining our disruptive business model with the BWRX-300’s 10th-generation proven technology. We will rely strongly on the UK supply chain; it is a critical element for our project. Our project will create a distinct competitive advantage for the UK economy,” he said.
The Labour government unveiled plans for a historic expansion in nuclear power across England and Wales within months of coming to power, with Keir Starmer calling for tech companies to work alongside the government to build SMRs to power energy-intensive AI datacentres across Britain.
SGE’s plans will put it in competition with Rolls-Royce to be the first to roll out SMEs in the UK, after the British engineering company won a government competition earlier this year to allow it to start generating power by 2032 at the earliest.
SGE’s joint venture agreement, signed this week in London, includes Google Cloud, which Sołowow hopes will also partner on investing up to £4.5bn in datacentres to make use of the nuclear output. The Guardian understands this is viewed as an accompanying proposal which is not part of its current application.
Instead, the consortium hopes to secure a similar deal to the contract offered to the Hinkley Point C nuclear project. It has opted for the contracts for difference scheme, which pays a fixed rate from energy bills once the project begins generating electricity, rather than the controversial model used to fund the Sizewell C project. Under that scheme the developer is paid during the construction phase, meaning billpayers risk bigger costs if there are delays.
Tom Greatrex, chief executive of the nuclear industry association, said SGE’s SMR plans showed the government’s nuclear framework “has really revived and spurred interest in privately led nuclear projects”.
Polish tycoon backs Britain’s £35bn mini nuclear reactors plan.

Michal Solowow’s Synthos Green Energy is seeking approval for 14 small modular
reactors at three sites including Oldbury in Gloucestershire.
SGE would not
disclose the location of the sites, two of which are privately owned, but
one of those that it has submitted an application to use is understood to
be the state-owned Oldbury nuclear site in Gloucestershire. Oldbury is one
of eight sites that has been designated for new nuclear power stations in
the UK.
The SMRs will deploy designs developed by GE Vernova Hitachi, a
joint venture between GE Vernova, the American energy equipment
manufacturer, and Hitachi, the Japanese conglomerate. It was one of four
technology providers that had been in the running to build the UK’s first
SMRs under a selection process led by Great British Nuclear, an
arm’s-length, state-backed body set up by the previous government, now
renamed Great British Energy — Nuclear.
It is hoped that the first unit
will start generating power by 2034, about the same time as the first
Rolls-Royce SMR, and will be funded by SGE through a mixture of debt and
equity. It is understood to be in discussions with the taxpayer-backed
National Wealth Fund over an investment and is aiming to apply for support
under the contracts-for-difference framework, which guarantees developers a
minimum that they will be paid for the power they generate. If future
wholesale prices are lower than this guaranteed price, developers will
receive a top-up payment, but if they are higher, they will repay the
excess as a saving to consumers.
Times 2nd July 2026, https://www.thetimes.com/business/companies-markets/article/polish-tycoon-britains-35bn-mini-nuclear-reactor-dsj5kc7s9
We’re up against forces that have all the money in the world’: Erin Brockovich on her battle against AI datacentres

What is certain, though, is that the land cannot withstand these centres’ immense demand for water. According to analysis by the Guardian, two-thirds of planned datacentres in the US are in drought-stricken areas. The larger centres need up to 5m gallons of water a day for cooling, equivalent to the average usage of 50,000 people. It is unclear what the plan is and whose needs will take priority between AI, agriculture and everyone else.
In 1993, she squeezed a $333m settlement from a Californian energy company in a scandal over contaminated water. Three decades later, she has a new target in her sights – and it’s global
Guardian, Mon 29 Jun 2026
When Erin Brockovich woke to find 30 emails from people from the same town, she realised something was going on. People email Brockovich all the time because of what happened in 1993, when she was instrumental in suing Pacific Gas and Electric Company (PG&E) on behalf of residents of the town of Hinkley, California, whose groundwater had been contaminated. The case resulted in a settlement of $333m – then the largest ever payout for a direct-action lawsuit. When she was immortalised by Julia Roberts in the 2000 film Erin Brockovich, she became the hero we didn’t know we needed, a modern day Joan of Arc. She had won against PG&E with no formal legal training.
The emails she received a few weeks ago were about datacentres. In April, she put a callout on her website asking for anyone with concerns about one near them to get in touch. Within a month, 3,862 people had replied. Tech companies have needed datacentres to power their technology “for ever”, she says, but the new ones being built to power AI? “This feels like Hinkley on steroids.”
This isn’t a story about AI, she says. “That genie is out of the bottle: it’s here, it’s an effective tool, you can use it or not,” Brockovich says matter-of-factly. This is about the massive structures being built to house the vast computing facilities AI requires. These datacentres, she says, stretch over “hundreds and hundreds of acres”. In May, Utah gave approval to a centre twice the size of Manhattan.
Some of the emails Brockovich gets from people near datacentres express genuine bafflement: “Why did I not know about this? How did this construction just start? Why am I now getting a notice from the city council that this has already passed when I didn’t even have a voice in it?” Others reflect concerns about the impact of the centres: “What about our resources? What’s happening to the water? Who’s paying for all this energy and am I going to foot that bill? What will the future impact on health be from these monstrosities? What’s going to happen to the wildlife?”
From the emails, Brockovich built a map of significant AI datacentres in the US that are either operational or under construction, overlaid with locations where community members have emailed in concerns. This open-source document is chilling: as of 24 June, 33 AI datacenters have been completed and are operational, 68 are under construction and 41 are proposed. And there had been 7,005 reports submitted through the online form, which is to say, all that is known about them is what people have seen. As a post on her Substack blog is headlined: “If data centers are so great, why are they being built in secret?”
“It’s happening in every US state, multiple counties, rural areas, ranches, farms and neighbourhoods. People watch nature because they respect it, they need it. And they’re watching it being destroyed,” says Brockovich. She has heard from people saying: “I’m concerned this is where the bald eagles nest,” “I’m watching wildlife disappear,” “I’m seeing dead animals.” Some communities learn about a centre months after it has been approved; others don’t hear anything about them and watch as a vast building emerges.
What is certain, though, is that the land cannot withstand these centres’ immense demand for water. According to analysis by the Guardian, two-thirds of planned datacentres in the US are in drought-stricken areas. The larger centres need up to 5m gallons of water a day for cooling, equivalent to the average usage of 50,000 people. It is unclear what the plan is and whose needs will take priority between AI, agriculture and everyone else.
“People are reporting bill spikes,” Brockovich says, reading an email from someone who says their monthly water bill went from $22 (£17) to more than $350 (£265). The threat of these centres is about more than money – it feels existential. “How will the water use disrupt the balance of nature? People are asking: “What will happen to us?”
………………………………………………………………………………………………………………………..After Hinkley, she worked on other environmental pollution cases against PG&E related to hexavalent chromium, the chemical that contaminated Hinkley’s water. More recently, she has focused on Pfas (per- and polyfluoroalkyl substances), “forever chemicals” that are a component in firefighting foam used heavily on US military bases. Pfas have been linked to health problems, including fertility issues and some cancers. In 2017, communities living near military bases reported worrying levels of these chemicals in their drinking water.
Brockovich’s renown is plainly the reason people email her when they have concerns. This is what led her to north-west Georgia last year, where staggeringly high levels of Pfas were found in the water and the wider environment. It was believed that they came from carpet factories that used stain-resistant chemicals. The major carpet factories say they complied with all regulations and no longer use Pfas. She is still supporting people there with their campaigns.
Unlike toxic chemicals leaking into water, nothing about datacentres is discreet. Signs that might be subtle one day – an absence of birdsong – the next day will be a centre up and running at full volume. “It really becomes about the noise, the decibels,” Brockovich says. People will write to her and say: “We’re going insane 24/7,” “It’s got to stop,” “It’s humming, it’s hissing, it’s buzzing.” She says: “It’s generators. It’s increased electric bills. It’s power surges.”
These structures are appearing without the consultation you would need to erect a new sports hall, as if people won’t notice. But people certainly will notice, because the buildings are vast. It feels like a step into post-democracy, which is a tech bro fantasy, a world in which laws and regulations have been obviated. The big tech companies seem to have blueprinted their fantasy and started building it.
Alternatives are now being mooted. “People are talking about putting them at the bottom of the ocean,” says Brockovich. “They’re talking about having barges and putting the datacentres there, using waves as the energy in cooler climates. Elon Musk wants to put them in space.” But with innumerable Earth-based datacentres already built or in the works, this feels like puff – the future you could have had, had you not sleepwalked into the one that has arrived.
For Brockovich, this is all a distraction. The first thing she wants is a case-by-case moratorium on approving datacentres. ( (She is collating these cases through her open-source mapping site and says councils vary in the action they are prepared to take, according to how surprised by, or receptive to, local complaints their officials are. Many states are only now stopping to consider whether there should be state-level regulation and oversight of datacentres – and, if so, what implications that would have for local decision-making and autonomy.
This takes time. Seventy-nine municipalities in the US have so far have issued moratoriums, many immediately being hit with lawsuits for breaking their original deal. Pauses have been introduced in Georgia, Maryland, Michigan and South Carolina – one introduced in Maine was then vetoed – but these are early interventions against tech behemoths.
When I ask Brockovich about the political climate – a president committed to AI and blatantly dismissive of environmental concerns – she is careful to stress that opposition to datacentres is bipartisan. She knows from her work fighting Pfas, though, that a change in administration can make an enormous difference to the success of these campaigns. In the final days of Joe Biden’s presidency, a clean-up operation was announced by the Pentagon. However, this plan has quietly been delayed by Donald Trump’s Department of Defense: in some areas, it won’t start until 2039.
Yet the nature of Brockovich’s campaigning is not to go straight to the top and demand policy change, but rather to build lawsuits from the ground up. Victory, to her, is won by way of a pragmatic to-do list. To start, she would go to local government and say: “I’d like to see an environmental-impact report. I’d like to see how you propose to power all this. Are you going to build your own power? Are you relying on our already strained resources?” She says: “Let’s get that information first and then have a town hall meeting where the people can be a voice in it.” She has a degree of confidence that the law still has teeth. “Lawsuits aren’t settling for $333m any more; they’re settling for billions,” she says.
Brockovich’s datacentre work goes beyond the US; she has been contacted by people in Australia, India, Scotland and Ireland. There is already a moratorium on any more datacentres in Dublin; even by 2023, such centres were accounting for a fifth of Ireland’s electricity usage. “This is a planetary thing,” she says. “It’s overwhelming. We have to have some courage to show up, and it’s difficult to do that when you’re up against forces that have all the money and all the intelligence and all the bandwidth in the world.” She, meanwhile, is “getting too old for this, by the way. I’m in my legacy phase. I have six grandchildren.”
She is smiling. All that may be true, but even if this is her final campaign, she won’t walk away until it’s over. She can beat this – she just can’t beat it on her own. https://www.theguardian.com/environment/2026/jun/29/were-up-against-forces-that-have-all-the-money-in-the-world-erin-brockovich-on-her-battle-against-ai-datacentres
Why X-Energy Stock Collapsed 19.2% This Week
COMMENT. Another dud Small Modular Nuclear Reactor fantasy?

Delays and downgrades are hurting X-Energy’s stock price this week.
By Brett Schafer – Jun 26, 2026 , https://www.fool.com/investing/2026/06/26/why-x-energy-stock-collapsed-192-this-week/
Key Points
- X-Energy does not have a reactor design approved today.
- Its construction projects keep getting delayed, causing an analyst downgrade.
- The company does not generate much in revenue today.
Shares of X-Energy (XE+2.17%) fell 19% this week, according to data from S&P Global Market Intelligence. The nuclear energy start-up saw a delay in its construction timeline and an analyst downgrade, which has dragged down the stock since its April IPO.
Delayed projects
X-Energy is designing advanced nuclear reactors, partnering with Amazon for future reactor builds. Amazon is also a shareholder in X-Energy, providing upfront capital to build projects to power Amazon data centers.
The roadblock to development stems from the United States government’s lack of official approval for any X-Energy reactor, which has delayed the breaking ground of X-Energy’s first project with Amazon until 2027. On top of this, Jeffries downgraded the stock this week, from $30 to $22, sending shares sharply lower.
Should you buy the dip?
Modern nuclear reactors can be a valuable source of electricity for powering the AI revolution. However, today, X-Energy does not have much of an actual business and will need to spend massive amounts of money upfront in order to get its reactor designs approved and its manufacturing facilities built.
Even after this drawdown, X-Energy stock trades at a market cap of $7.7 billion with barely any revenue. That should keep all investors away from the stock today.
Bechtel opens Polish office to oversee country’s first nuclear plant, to cost $37 Billion

Global Construction Review, Joe Quirke, 25.06.26
US engineering giant Bechtel has opened an office in Gdańsk, northern Poland to support the delivery of the country’s first nuclear power plant and develop a local workforce to grow Poland’s nuclear industry.
The office will serve as an engineering and operations hub for the nuclear facility in Choczewo, Pomerania, on the Baltic coast, which is Poland’s first nuclear project and will be built by Westinghouse and Bechtel alongside Polish utility company Polskie Elektrownie Jądrowe..
The price tag for the nuclear plant could reach $37bn and will contain three of Westinghouse’s AP1000 units generating 3GW of energy. The Generation III+ reactor has fully passive safety systems, a modular design and one of the smallest footprints per MWe.
According to Poland’s state nuclear agency, the first phase of the plant is due to open in 2036. Two additional units are expected to follow within the next three years……
If finance can be secured, a second plant will be built by Kepco of South Korea and will consist of two APR 1400 reactors installed in Poland’s central Patnów-Konin region. https://www.globalconstructionreview.com/bechtel-opens-polish-office-to-oversee-countrys-first-nuclear-plant/
Canada just lowered a 953-tonne slab of steel and concrete into a 35-meter shaft in Ontario and ended a decade of talk, starting the Western world’s first grid-scale small nuclear reactor.

autoNotion, By: Luis Reyes, Jun 21 2026
“……………………..That slab is the basemat, the foundation of the first GE Vernova Hitachi BWRX-300, going up at the Darlington site east of Toronto. Ontario Power Generation, the provincial utility building it, and GE Vernova both call it the Western world’s first grid-scale small modular reactor…….. it is the first of four planned for the same site.
None of them will generate a watt until the end of 2030. But the concrete is in the ground now, which is further than anyone in the West has gotten with this technology before……………………
The reason a slab of concrete counts as news comes down to nuclear bookkeeping. For a conventional plant, pouring the first concrete for the reactor basemat is the moment a project officially becomes a nuclear unit under construction……………………..
There is one wrinkle, and it has to do with fuel. The BWRX-300 runs on standard low-enriched uranium, the same kind feeding most of the world’s reactors, not the high-assay HALEU that more exotic designs need. That part is routine. The catch is local: Canada’s existing CANDU fleet runs on natural, unenriched uranium, so the country does not enrich uranium domestically, and the new reactors will need a fuel supply it currently has to source from elsewhere. It is a solvable problem. It is not solved yet…….
Twenty-one billion dollars, and what it buys
OPG’s release-quality estimate puts the first reactor at CAD 6.1 billion, plus another CAD 1.6 billion for roads, tunnels, cooling-water lines and other infrastructure shared across all four units, for CAD 7.7 billion to get the first one standing. The full four-unit program is budgeted at CAD 20.9 billion (about USD 15 billion) in 2024 dollars, with interest and contingencies baked in, and OPG expects each later unit to cost less as the supply chain matures, dropping to roughly CAD 4.1 billion for the fourth.
…… The Canada Growth Fund and the Building Ontario Fund are each taking a minority stake, putting up CAD 3 billion in equity between them
Why the rest of the world is watching a hole in the ground
The reason this particular construction site matters beyond Ontario is that Darlington is the reference unit for a much bigger plan. In Tennessee, the Tennessee Valley Authority became the first U.S. utility to file a construction permit application for a BWRX-300, for a single reactor at its Clinch River site near Oak Ridge. The U.S. Nuclear Regulatory Commission docketed that application in July 2025 and expects to finish its review by the end of 2026; TVA has said preliminary site work could start as early as this year, and the Department of Energy put a USD 400 million grant behind it. Poland’s Orlen Synthos Green Energy plans a fleet of about 24 of the reactors, with its first unit targeted near Wloclawek by 2032, and utilities in Sweden, Estonia, Hungary and the Canadian province of Saskatchewan are all somewhere on the same path.
The whole economic argument for SMRs rests on standardization, on building the identical machine over and over until the price comes down, the way the Darlington refurbishment shaved 250 days off its second reactor compared with its first. Darlington is where that theory either holds up or it doesn’t. Get the first one right and the next two dozen get easier and cheaper to finance. Blow the budget and every utility watching quietly revises its plans.
………………The West has spent the better part of two decades talking about small modular reactors. Canada is the first to find out whether the pitch survives contact with poured concrete. https://www.autonocion.com/us/canada-tonne-grid-nuclear-reactor/
Whatever Happened to the Small Modular Reactor Revolution?

By Felicity Bradstock – Jun 21, 2026, https://oilprice.com/Alternative-Energy/Nuclear-Power/Whatever-Happened-to-the-Small-Modular-Reactor-Revolution.html
- The United States, the United Kingdom, China, and Russia are investing heavily in SMR development as part of broader nuclear expansion strategies.
- China and Russia remain the only countries with commercially operating grid-connected SMRs, while most Western projects are still in licensing or early deployment stages.
- Regulatory hurdles, financing challenges, supply chain constraints, and dependence on HALEU fuel continue to slow commercial deployment worldwide.
In the early 2020s, there was great enthusiasm around the development of the small modular reactor (SMR), which was expected to support a nuclear renaissance. However, after supply chain disruptions, technical difficulties, and other challenges, it is unclear whether SMR development is progressing as expected. Nevertheless, some companies continue to invest heavily in the technology, hoping it will help drive innovation and expansion in the nuclear power sector.
SMRs are advanced nuclear reactors with a power capacity of up to 300 MW(e) per unit, equivalent to around one-third of the generating capacity of a conventional nuclear reactor. SMRs are much smaller than conventional reactors and are modular, making them easier to assemble in factories and transport to the site. Thanks to their smaller size, SMRs can be installed on sites not suitable for larger reactors. SMRs are also [supposedly] much cheaper and faster to build than traditional nuclear reactors and can be constructed incrementally to meet a site’s growing energy demand.
Several countries are pursuing SMR development, including the United States, China, and Russia, as well as Canada, France, Japan, South Korea, and the United Kingdom. Russia and China are currently the only two countries with grid-connected, operational SMRs. Russia’s floating Akademik Lomonosov plant produces electricity and heat, while China’s HTR-PM, a high-temperature gas-cooled pebble-bed reactor, generates just electricity. Japan also has an operational high-temperature engineering test reactor, but this is categorised as a research and test reactor rather than a commercial reactor.
In the United States, the government has supported private SMR innovation through favourable federal policies and regulations. TerraPower, X-energy, and NuScale are among the leading companies advancing SMR development. In May 2025, President Trump issued four executive orders aimed at revitalising U.S. nuclear power. While Trump has generally pushed for more fossil fuel expansion and restricted renewable energy development, he has been vocal in his support for nuclear power since coming into office.
Trump aims to support the deployment of new nuclear reactor technologies and expand American nuclear energy capacity from around 100 GW today to 400 GW by 2050. In December 2025, the Department of Energy selected the Tennessee Valley Authority and Holtec Government Services to support early deployments of advanced light-water SMRs in the United States, with the teams expected to receive a combined total of $800 million in federal funding for initial projects in Tennessee and Michigan.
The United States is also collaborating with other countries to advance SMR technology. In March 2026, the U.S. Department of Commerce announced a $40 billion energy partnership with Japan to deploy GE Vernova Hitachi (GVH) BWRX-300 SMRs in Tennessee and Alabama as part of the U.S.-Japan Strategic Investment initiative.
Meanwhile, in the U.K., in 2025, the government selected aerospace company Rolls-Royce as the preferred developer of SMR technology, with over $800 million in financing from Britain’s national wealth fund. Rolls-Royce will develop its first SMR project at Wylfa on the island of Anglesey, where plans for a conventional nuclear plant were scrapped in 2020. In June, Rolls-Royce SMR was chosen by the Swedish development company Videberg Kraft to build SMRs in Sweden, marking a major multibillion-pound export deal between the U.K. and Sweden.
While there has been widespread government support for SMR development, many hurdles have stood in the way of commercial deployment. Several companies have already presented compelling prototypes and positive laboratory results, but translating this into repeatable commercial deployment is a complex task. Over 120 distinct SMR designs have been recorded globally, compared to 83 in 2022. However, many have not achieved licensing, and most are still on the long road to commercial deployment.

In Europe, one of the main hurdles is the fragmented national regulators, differing political positions among member states, and the limited ability to deploy large-scale public capital rapidly. Meanwhile, in the United States, the deployment-oriented approach, which focuses on accelerating advanced nuclear licensing, has spurred private SMR development, but has not prioritised long-term coordination and industrial harmonisation.
A funding gap persists for SMR development in several regions of the world, although greater federal and private financing has helped the U.S. advance SMR development, with the first U.S. SMR commercial deployment expected in 2028.
Meanwhile, many advanced SMRs are powered using HALEU fuel, which has between 5 and 20 per cent enriched uranium, and is produced almost exclusively in Russia. The United States and some other countries are gradually producing their own HALEU supplies, although strict sanctions on Russian energy have delayed SMR deployment in several places.
While SMRs are likely to play a major role in the nuclear industry’s future, severe delays and funding gaps have slowed deployment. The United States is currently playing catch-up with China and Russia, while Europe and other regions of the world could still be several years behind in commercial SMR deployment
The Nuclear Reactors Coming to a Small Town Near You

As a disruptive new nuclear power project embeds itself in Parsons, Kansas, residents are divided on whether it’s worth the potential risk.
The New Republic Finn Hartnett, June 16, 2026
Parsons, Kansas …… With a population of about
9,600 ………
……………………………………The Parsons Sun had it first: a deal struck between industrial park board members and the nuclear company Deep Fission. A first-of-its-kind nuclear reactor was coming to the park. “I saw it on Facebook, and I thought it was a joke,” Marjorie Reynolds, a home nurse who lives in the area, said. The public was not informed before the deal was completed: Even county commissioners were only told “a week or two” prior, according to Commissioner Terry Weidert. “They just announced it in the newspaper December 4, like it was a done deal,” anti-nuclear activist Ann Suellentrop said. “So arrogant and so dismissive of the public.”
Park officials said they could not inform the public because they were under nondisclosure agreements with Deep Fission and the Department of Energy. “You’ve got intellectual property that … they like to keep under wraps,” Reams said. “If you’re the DOE, it’s a national security risk. It’s an energy project that has national implications.” Zaleski concurred, arguing that the agreement with Deep Fission was a standard one. “That’s just how the cookie crumbles in this industry,” he said.
Holger Meyer, a particle physics professor at Wichita State University with a background in nuclear energy, said the public should have been informed regardless. “There sometimes are good reasons for the desire for nondisclosure agreements,” he said. “But this isn’t something that just impacts the land it is on. It impacts the entire county—the entire region.… There is obvious public interest.”
It didn’t matter. Five days later, park officials, executives of Deep Fission, a smattering of locals, and roughly 40 TV stations gathered in the park for a groundbreaking. Parsons may not have liked it, but it was going nuclear.
Founded three years ago, the California-based start-up Deep Fission was thrust into prominence last August, when its reactor project became one of 11 selected as part of Donald Trump’s “Nuclear Reactor Pilot Program.” The pilot program, created by executive order, fast-tracks the companies’ ability to receive commercial operating licenses. The stated goal at the time was for three reactors to achieve criticality by July 4, 2026; one already has, and the DOE claims two more are on track. Deep Fission is not among them.
This rapid schedule is possible in part because Trump has overhauled the Nuclear Regulatory Commission since the start of his second term, relaxing regulations and inspections to meet demand from data centers.
In May 2025, the president ordered the theoretically independent NRC to submit to the White House’s Office of Management and Budget, and cut the annual hours spent on nuclear inspections by an estimated 38 percent. Hundreds of staff members have since departed the agency, and the two remaining Democrats on its board have expressed fear they could be fired after Democratic Chair Christopher Hanson was canned last year. Suellentrop warned that the NRC will be “gutted” if Trump continues to get his way. “The DOE will rubber-stamp whatever he wants, and to hell with people’s safety, their health, the environment,” she said.
………………….For advocates of Deep Fission, the government’s promotion of the project is evidence of its safety.
But others warned against such implicit trust. Meyer said “industry interest” was behind the Trump administration’s embrace of nuclear power. “Environmental regulations are being dismantled in all areas,” he said. “It’s clear that nuclear safety isn’t prioritized by the Trump administration.” Kent Rowe, a retired professor of aeronautics and anti-nuclear activist from near Parsons, stated that the Deep Fission project was “a scheme to bury [reactors] haphazardly and worry about consequences later.”
A March letter signed by 11 state attorneys general condemned the DOE for creating an exemption allowing certain nuclear projects to skip previously mandated environmental reviews. Paul Gunter, director of the group Beyond Nuclear, said he was concerned the exemption would allow Deep Fission to bypass proper safety measures.
“There should be no question about whether or not a novel nuclear technology without a designed reactor containment system can avoid an environmental review for potential severe accidents and the long-term consequences,” he said. When asked whether Deep Fission would indeed be exempt from the review, a DOE spokesperson said, “No determination has been reached.”
While the other nuclear companies in Trump’s pilot program are working on more or less traditional reactors, Deep Fission is getting weird with it, forecasting a reactor it has described as both “discreet” and “bespoke.” A laudatory Forbes profile on company founders Richard and Liz Muller outlines the plan: “Drill a 30-inch-diameter borehole a mile into the earth, fill it with water, then insert a teeny-tiny nuclear reactor that will boil the water at the bottom and send it up a separate pipe to run a steam turbine. Each hole will generate 15 megawatts, enough to power 12,000 homes.” (The profile fails to note some less savory details from Richard’s past: He was a vocal global warming skeptic until 2012, and has been criticized for taking research funding from the oil and gas tycoon Charles Koch.)
A small, scalable reactor is Deep Fission’s Theranos-esque goal, perfect for supporting Silicon Valley’s new obsession: AI data centers. Seventy in-house reactors can power one data center, according to Forbes. Deep Fission has been open about a desire to “meet the explosive demand for power from artificial intelligence” with a system “designed to scale modularly.” They have already seduced the likes of Palantir co-founder Joe Lonsdale, who owns an 8 percent stake in the company.
Speed is one of the company’s core tenets, which is concerning to some critics. Deep Fission’s website proudly states its reactors take an “estimated six months” to build, and the company told Parsons in December it aimed to have a test reactor running by July. “We have to build fast enough to meet data center demand before they decide to go with something else,” Liz Muller told Forbes.
It turns out, though, that building a nuclear reactor is quite difficult. The company now will not say when its test reactor will be ready, and is unsure on whether it will be able to open a commercial reactor at all. Deep Fission recently completed a test well in Parsons 6,000 feet deep and eight inches in diameter. That may sound impressive, but it’s far smaller than the mile-deep, 30 to 50 inch–wide borehole that will be needed for the real thing.
While a white paper sent to the NRC gives insight into the proposed reactor blueprint, Deep Fission’s design is not final yet. The company has not submitted a preliminary safety analysis to the DOE, nor applied for the NRC license it will need to sell energy, according to federal officials. Deep Fission declined to speak with The New Republic for this piece, with vice president of communications Chloe Frader citing the “active registration process.”
Reams said Deep Fission was never going to hit the deadline it set for itself. “I think even if it had gone perfectly, they probably wouldn’t have hit July 4,” he said. As to why the company may not be selling its energy anymore? “They weren’t sure [of] all the P’s and Q’s that they had to make sure were covered,” Reams said. “It’s been a learning process for them.”
…..some have been vocal in their opposition to Deep Fission, particularly Reynolds, who founded a local group called Prairie Dog Alliance for the express purpose of fighting the development. In a matter of months, Reynolds has assembled a hodgepodge of community members, among them farmers, business owners, activists, and professors. (Suellentrop, Meyer, Rowe, and Gunter have all been in contact with the group.) Prairie Dog Alliance now boasts over 500 Facebook followers and about 15 members who attend regular meetings.
Some locals say Prairie Dog represents the majority opinion. Librarian Heather Fouts estimated that “at most 25 percent” of residents support the nuclear project. “I would say most of Parsons is against the reactor,” echoed Beachner, who recently joined the group. “But I also feel … nobody believes they can do anything.” In contrast, Zaleski and Parsons Sun editor Hannah Emberton cast Prairie Dog as a vocal minority.
The group forced a public meeting with Deep Fission in March after rejecting private talks. There have been a handful of meetings since, but Prairie Dog still wants more transparency. Member Jill Blankinship said the March meeting was “turned into a meet-and-greet”; at a later May in-person meeting where company officials took questions, participants were made to write them down ahead of time. Deep Fission also promotes a “community advisory group” in Parsons, which has no public facing presence at the moment, though Deep Fission says has met twice.*
Deep Fission is also drilling its boreholes at the edge of the Roubidoux aquifer, an underground water source that’s part of the larger Ozark system. While Parsonites get their drinking water from nearby Lake Parsons, the Ozark system is used for commerce, farming, and rural water districts all over the shop. “If something did happen, there’s potential that it could contaminate groundwater, which then contaminates the Neosho River, which goes … all the way down to Oklahoma,” Blankinship said. “Thirty-six towns, all kinds of people.”…………..
There’s also the issue of nuclear waste. Deep Fission’s founders said in April they wanted to just abandon their spent fuel rods underground after each reactor’s six-year lifespan. “Instead of pulling them out of the hole, they’ll pour in a mix of cement and rock to seal it all in place,” the Forbes profile states happily. Activists called the idea dangerous.
A month after the Forbes piece, Deep Fission seemingly changed its tune. Chief Operating Officer Mike Brasel said in a May public meeting that the company will only leave spent fuel underground temporarily and that “we do not plan on disposing fuel down in that hole.” While the federal government is “contractually required to take the fuel,” Brasel said, Deep Fission aims to have a recycling or disposal facility in place before its boreholes begin to collapse in “40 to 50” years.
By then, things could already be going very wrong. Reynolds’s doomsday scenario is that radiation poisoning of the city’s soil and water will turn Parsons into something akin to Picher, Oklahoma, a small town 35 miles away. Once a bastion of lead and zinc mining, the town underwent dangerous corporate practices that caused irreconcilable environmental damage to the land; Picher was soon declared uninhabitable, and the municipality was officially dissolved in 2013.
In the event of a disaster, Deep Fission is seeking liability insurance under the Price-Anderson Act, which indemnifies the company in the event of a nuclear accident, providing costs fall above a certain threshold. “They’re going to … look for being indemnified from an accident that they’re saying will never happen,” Gunter said. “That’s a clear no-confidence vote.”…………………………………………………………..https://newrepublic.com/article/211643/nuclear-reactor-parsons-kansas-safety
Trump’s ‘nuclear bros’ race to deliver US atomic revival

At a factory in Texas, Matt Loszak is building a new type of nuclear reactor he
hopes will allow the US to reclaim leadership in an industry dominated by
Russia and China. “Our goal is to ship hundreds and possibly thousands of
reactors every year,” the 35-year-old founder of Aalo Atomics said as he
inspected components for the Aalo-X, designed to power AI data centres.
Aalo is one of several US start-ups planning to switch on new reactors this
month ahead of a July 4 deadline set by President Donald Trump to mark the
250th anniversary of America’s independence.

Antares Nuclear and Valar
Atomics have already announced they have achieved “criticality” — the
moment a nuclear chain reaction becomes self-sustaining. Radiant Nuclear
and Oklo told the FT they were in the final stages of receiving safety
clearances under Trump’s pilot programme, which aims to have at least
three test reactors reach criticality by the target date. Many of the
founders leading the charge are under 40 and come from outside the nuclear
industry, while some have ties to the Trump administration. Backed by
Silicon Valley, they say small reactors can help meet soaring electricity
demand from AI data centres.
FT 18th June 2026,
https://www.ft.com/content/0d074795-e54a-41d7-9c97-baf2bd6deb94
Can small nuclear reactors deliver for Europe?

SMR’s promise affordable, low-carbon nuclear power, but the continent will reap the benefits only if governments abandon piecemeal projects and deploy reactors at scale.
The Parlament Magazine, By Matej Tonin and Malwina Qvist, 11 June 26
Europe needs reliable, low-carbon power for its industries, cities and energy security and it will need even more in the coming decade. Small modular reactors are increasingly seen as part of the solution, but only if the European Union develops them as an industrial program rather than a series of scattered national experiments.
SMRs must be deployed as a fleet. Repetition can reduce costs and build the supply chains Europe needs. The next three years will determine whether Europe develops that capability itself or watches it emerge elsewhere.
The fleet logic
SMRs are often sold on the promise of being cheaper than large reactors. On a first-of-a-kind basis, they are not.
Their economics depend on something different: serial production.
An illustrative model by the EFI Foundation shows why: in a four-unit SMR order book, the fourth unit is around one-sixth cheaper than the first. The savings come from factory fabrication, standardized designs, established supply chains and the learning gained from each successive unit.
This has a policy implication. In the short term, no single European market will be able to anchor a fleet on its own. The order book needed to drive SMRs down their cost curve must be European in scale, otherwise large-scale deployment will remain out of reach.
The European Commission projects between 17 and 53 gigawatts of SMR capacity across the EU by 2050.
The range itself is telling: even the lower bound would require a serious industrial program; the upper bound would put Europe among the leaders in SMR deployment. ……………………………………………………………………………………………………………………………………………………………………………………………………………………………………………………https://www.theparliamentmagazine.eu/news/article/oped-can-small-nuclear-reactors-deliver-lowcost-energy-for-europe
Space Force needs to prepare for an ‘in-person’ moon conflict with China, new report argues
Guardians need a human spaceflight program for future lunar missions, Mitchell Institute says.
Defense One, Thomas Novelly, 23 May 26,
The Space Force should prepare to put active-duty troops on the moon and on space stations to counter China’s lunar and military ambitions, a new research paper argues.
The Mitchell Institute’s paper, published Thursday, calls for the Space Force to prioritize the creation of a “human spaceflight” program and redefine federal, active-duty Title 10 orders to compete against China’s military-focused space initiatives—such as the reported goal of putting its Taikonauts on the moon by 2030. Although Chinese officials as recently as last month have said the country believes in the “peaceful use” of space, the paper claims future “competition for control of lunar resources and territory will likely reach a tipping point” and the U.S. military must be prepared.
With a potential ‘in person’ lunar conflict with China as the contextual touchstone, the U.S. must begin a pragmatic multi-decade effort, leveraging its Space Test Course (STC), as well as partnerships with NASA and commercial space companies, to deliver the skills, tools, and concepts needed for future Title 10 activities to enforce U.S. spacepower-enabling norms and standards,” the report said. “These efforts will require additional funding from Congress for both U.S. Space Force human spaceflight opportunities and residencies at commercial space stations.”
The 22-page policy report calls for blurring the long-standing boundaries between space exploration and militarized operations by allowing Title 10 active-duty federal orders to include “space and lunar habitation” and “warfighting authorities and a national defense mindset in the advancement of human spaceflight.” The 1967 Outer Space Treaty, which the U.S. and China are parties to, calls for the governments to use the moon and other planets for “peaceful purposes” and forbids military bases, testing, and maneuvers. Kyle Pumroy, a retired Space Force colonel and the paper’s author, called for pushing back against those norms………………………………………………………………………………….. https://www.defenseone.com/threats/2026/05/space-force-needs-prepare-person-moon-conflict-china-new-report-argues/413747/
United Nations Open-ended working group on the prevention of an arms race in outer space in all its aspects (“OEWG on PAROS”)

Pursuant to General Assembly decision 79/512, the General Assembly decided to convene a new open-ended working group for the period 2025–2028, which would replace the two open-ended working groups established by resolutions 78/20 and 78/238.
The General Assembly decided to task the open-ended working group to submit recommendations on the prevention of an arms race in outer space in all its aspects, and that its discussions and recommendations would be informed by all the relevant General Assembly resolutions on the prevention of an arms race in outer space, including: (a) Resolution 78/20; and (b) Resolution 78/238.
Decision 79/512 decided that the Open-ended working group shall hold a two-day organizational session in Geneva in 2025, and shall meet in Geneva for two substantive sessions of five days each in 2025, two substantive sessions of five days each in 2026, two substantive sessions of five days each in 2027 and two substantive sessions of five days each in 2028.
Sessions
The organizational session of the Open-ended working group on the prevention of an arms race in outer space in all its aspects was held in Geneva from 6 to 7 February 2025 in Room XVIII at the Palais des Nations.
The first substantive session was held in Geneva from 7 to 11 April 2025 in Room XVIII of the Palais des Nations.
The second substantive session was held in Geneva from 21 to 25 July 2025 in Room XVII of the Palais des Nations.
The third substantive session will be held in Geneva from 6 to 10 July 2026 in Room XVI of the Palais des Nations.
The fourth substantive session will be held in Geneva from 23 to 27 November 2026 in Room XVI of the Palais des Nations.
Digital recordings of past public meetings are available here. Live audio streaming for public meetings of the open-ended working group may be found here.
Information for Participants…………………………………………………………………………. https://meetings.unoda.org/open-ended-working-group-on-prevention-of-an-arms-race-in-outer-space-2025
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