UK government secretive about its Net Zero strategy, especially on tax-payer funded projects like small nuclear power plants.

UK refuses to release document showing Net Zero Strategy CO2 savings, New Scientist, 1 December 2021, By Adam Vaughan
The UK government Department for Business, Energy and Industrial Strategy (BEIS) has turned down a freedom of information request that would allow independent scrutiny of its plan for net-zero greenhouse gas emissions.
The UK government has refused a freedom of information request to release a spreadsheet showing how much its landmark Net Zero Strategy will cut carbon emissions for individual measures, such as backing a new nuclear power station and fitting new electric car chargers.
Withholding the document smacks of “secrecy and subterfuge” and prevents the public from being able to interrogate the estimated impacts of the measures, says Ed Matthew at climate change think tank E3G.
The publication of the government’s Net Zero Strategy on 19 October was a key moment ahead of the COP26 climate summit, laying out in detail how the UK plans to reach its 2050 commitment to net-zero greenhouse gas emissions in the coming years.
Previous government blueprints for decarbonisation, such as the 2020 10-point green plan and 2017 clean growth strategy, have spelled out estimates of exactly how much individual policies will cut emissions. But the Net Zero Strategy failed to provide any such breakdown, which observers said showed a lack of transparency that hampered independent scrutiny.
Government officials conceded that there was a spreadsheet containing all the figures, but said they wouldn’t release it. Now, the Department for Business, Energy and Industrial Strategy (BEIS) has refused a freedom of information request by New Scientist to publish the document. It declined the request on the grounds that it involves the disclosure of internal communications…………….
The strategy does show top-level estimates of how much emissions will change for different sectors, such as power, buildings and farming, between now and 2050. But it doesn’t break down individual measures, including backing new hydrogen production or developing new small nuclear plants, both of which will be supported by hundreds of millions of pounds in public funding.
“Ministers are behaving like a shady dealer asking customers to buy a product without seeing it first,” says John Sauven at Greenpeace UK. He is calling on BEIS to publish the spreadsheet: “The best thing would be for the government to release the numbers behind the plan and allow experts to kick the tyres on it”.
The document is likely to include estimates of how extensively various technologies will be employed and their impacts on greenhouse gas emissions in the UK. There may be a mismatch between what the government has committed to publicly, such as a Conservative party manifesto pledge to quadruple offshore wind capacity by 2030, and the estimates that are being withheld, for example………..
New Scientist has appealed the decision not to publish the document. https://www.newscientist.com/article/2299318-uk-refuses-to-release-document-showing-net-zero-strategy-co2-savings/#ixzz7Drfyfmii
Global heating brings easier Arctic passage for Russia’s floating nuclear power plant to open up Arctic for more fossil fuel mining, more global heating.

World’s first floating nuclear power plant fuels Russia’s Arctic ambitions Ft.com Remote Siberian port lies at centre of plans to open up shipping and reach valuable resources © Nastassia Astrasheuskaya/FT | The Akademik Lomonosov nuclear power plant Share on twitter (opens new window) Share on facebook (opens new window) Share on linkedin (opens new window) Save Nastassia Astrasheuskaya in Pevek YESTERDAY
Moored off the small Arctic town of Pevek is the Akademik Lomonosov — the world’s first floating nuclear power plant and a sign of how President Vladimir Putin’s ambitions for Russia’s far east are taking shape. This port on the northern coast of Siberia was once notorious as a Soviet gulag. These days it is part of Moscow’s plan to open up a major shipping lane through the Arctic and bring natural resources within easier reach. Pevek’s harbour is only ice-free for four months a year but is intended to become a hub for commercial shipping on the so-called Northern Sea Route as climate change gradually eases the passage through the Arctic. And the power provided by the Akademik Lomonosov is intended to help Pevek become a gateway to Chukotka, a region close to Alaska and rich in gold, silver, copper, lithium and other metals…………
Few in Pevek seem concerned by the nuclear reactor in the harbour. “Fear? We have none. Perhaps Russians are not afraid of anything any more. We have seen and lived through everything. We have to be optimistic,” said Igor Ranav, a locally born businessman. “We were told the plant is made with the latest technology and it is safe, and I hope so.”
Development of the NSR is in the hands of Rosatom, the state nuclear corporation. As well as commissioning the Akademik Lomonosov, Rosatom is also in charge of nuclear-powered icebreakers that the company expects will help to open up year-round Arctic navigation by the middle of the decade. …………
Developing Chukotka along with the rest of the Arctic has long been a goal for Putin and Russia, which this week is hosting a plenary meeting of the Arctic Council, where the eight countries of the region are represented. “Russia should expand through the Arctic, as this is where it has its main mineral resources,” Putin said in 2017, when Russia first produced liquefied natural gas in the Arctic and exported it via the NSR. ……………
By mid-century, the Arctic and Antarctic Research Institut expects ice levels to lose another two-thirds in the summer, and to halve in winter. The warming ocean is expected to help cut shipment cost. Less ice means fewer icebreakers and faster journeys.
The warming ocean is expected to help cut shipment cost. Less ice means fewer icebreakers and faster journeys…………….. https://www.ft.com/content/f5d25126-94fc-41fc-bc35-341df0560f4d
The nuclear consequences of cyber vulnerabilities

The nuclear consequences of cyber vulnerabilities, https://www.europeanleadershipnetwork.org/commentary/the-nuclear-consequences-of-cyber-vulnerabilities/ Wilfred Wan |Researcher at the United Nations Institute for Disarmament Research (UNIDIR), 29 Nov 21,
A recent report about a massive cyber surveillance campaign allegedly conducted by Russian intelligence against US government agencies reflects disturbing trends in cyberspace. The number of reported data breaches in 2021 is on pace to set a record, with government entities constituting the most targeted sector, and global supply chains increasingly impacted. The planning and sophistication that characterizes some of these operations in recent years also suggest more frequent State-level involvement, underlining the fact that cyber—or information security—capabilities increasingly constitute part of national strategic toolkits.
Operations in cyberspace have also targeted elements of the nuclear weapons enterprise across states. Recent known cases include the discovery in December 2020 of “long duration activity” against the US National Nuclear Security Administration (responsible for the management of the US stockpile), and in April 2021 of operations against a firm linked to the design of Russian nuclear submarines. In neither instance was there any indication that functions related to nuclear weapons systems were impacted.
Yet these revelations should heighten concerns beyond the states targeted, as the existence of these operations could have implications for potential nuclear weapon use. Cyber operations of the kind cited are unlikely to cause detonation events directly. Yet operations that successfully interact with nuclear forces can undermine states’ confidence in their nuclear deterrence capability or credibility, which can trigger forceful military response and even prompt ‘use it or lose it’ nuclear dilemmas. The clearest path to this end involves intrusions into weapons systems themselves. This is not far-fetched. In limited testing with “relatively simple tools and techniques”, the US Department of Defense in 2018 “routinely found mission-critical cyber vulnerabilities” in their weapons systems under development. Other nuclear-armed states are likely to be similarly vulnerable.
Other infringements on deterrence include cyber operations that impact nuclear command, control, and communication. Increased digitalization is likely to create new vulnerabilities, exacerbated by reliance on the supply chain. Even systems isolated from the internet can be compromised. The militarization of cyberspace—and a legacy of Cold War electronic warfare — also raises the possibility that adversaries could now induce the kind of malfunctions (such as erroneous warnings in early warning systems) that in the past have fuelled several nuclear ‘close calls’. Additionally, cyber operations that amplify conventional capabilities to evade radar and air or missile defence may increase nuclear force vulnerability, real or perceived.
The reason why such intrusions may escalate to a scale even beyond the intentions of perpetrators centres on a lack of clarity around so-called cyber ‘red lines’. Several nuclear-armed states have acknowledged the possibility of escalation linked to the cyber domain, or in their nuclear doctrines open the door to use in response to cyber operations. Further precision on thresholds is generally absent, with deliberate ambiguity held in service of deterrence credibility. Yet notions of achievable strategic stability are undermined by the secretive nature of cyber operations, the many potential points of entry for cyber operations, and context-dependent concepts such as ‘critical infrastructure’. Cyber-nuclear interactions open the door for misperception, miscalculation, or misunderstanding.
Reducing cyber-nuclear risks requires preventing interactions between cyber operations and nuclear forces; it also requires mitigating the consequences of interactions when they do take place. Developments in cyber space suggest the potential development of voluntary ‘rules of the road’ that can support the former. Last month the US and Russia submitted a joint resolution to the UN General Assembly (co-sponsored by 104 States) on responsible behaviour in cyberspace. Cyberspace policy also features in ongoing US-Russia strategic stability talks; President Biden in June 2021 had provided President Putin a list of critical infrastructure sectors meant to be “off-limits” from cyber operations. Such negotiations of State behaviours would be significant but would only address part of the risk picture.
It is incumbent on nuclear-armed states to strengthen the cyber security of their weapons and related systems and to elaborate standards across the entirety of their supply chains. Dialogue among nuclear-armed and nuclear-allied states can inform common understandings of risk perceptions, and chip away at the ambiguity around red lines. States can also look to establish guard rails through the conflict-prevention toolkit. In fact, information exchange around cyber military exercises, memorandums of understanding on engagement with communications and radar systems, and political declarations that nuclear command and control lies outside cyber bounds can build a foundation for formal agreements down the line.
Cyber-nuclear interactions are likely to increase given trends in the militarisation of the cyber domain and the digitalisation of nuclear weapons systems. The secrecy across both domains presents significant challenges: not only in their regulation but also to underlining the urgency of the situation and creating the prerequisite momentum for such action. After all, the cyber equivalent of the Cuban Missile Crisis is unlikely to ever play out in public. Yet the very real risk of cyber-nuclear interactions driving inadvertent nuclear war should provide ready incentive for immediate action.
Wilfred Wan is the co-author of a new UNIDIR report on The Cyber-Nuclear Nexus: Interactions and Risks.
”Nuclear Revival” for Canada? Gordon Edwards discusses the latest propaganda.

Gordon Edwards, 27 Nov 21, Christopher Read’s latest half-hour documentary on the Nuclear Waste Management Organization (NWMO) discusses its efforts to convince some small community in Ontario to receive all of Canada’s high level radioactive wastes for deep burial.
These are the most toxic materials ever produced by any industry. Of the hundreds of kinds of radioactive poisons contained in the used nuclear fuel, only a handful existed on Earth in significant amounts before 1939. They are created in large quantities inside nuclear reactors.
NWMO is owned by the same companies that make the radioactive poisons in the first place – and they have no intention of stopping. They want to keep right on mass-producing the highly dangerous byproducts indefinitely. Because they have to wait 30 years before moving these deadly wastes – they are literally and figuratively “too hot” to move sooner — there will always be a catastrophic amount left unburied at the surface no matter how fast they bury the older, somewhat cooler wastes.
Meanwhile they will be burdening communities with a permanent radioactive legacy, including contamination caused by unpacking and repackaging millions of embrittled fuel bundles right at the surface, beside the proposed waste dump. Any damage to any of these fuel bundles during handling, even small cracks, will allow radioactive materials to escape and some of it will inevitably enter the sir we breathe, the water we drink, the food we eat, or the soil we walk on.
New reactors are untested, exorbitantly expensive, and will take 10 to 20 years to become available, if ever. They are a DDD = Dirty, Dangerous Distraction from the real job of cutting greenhouse gases now, not 10 years from now. Energy efficiency and renewables can be implemented in a single building season. Wind and solar and efficiency measures are far cheaper and much faster to implement than new nuclear.
When your house is on fire, it is time to grab a bucket or a fire hose and pour water on it – out the fire out! This is no time to sit down and design a new, improved sprinkler system for future use.
Climate change is here now. Action is urgent.
Investing in new nuclear plants is just “kicking the can down the road”. Canada’s Environment Commissioner points out that Canada has the worst record for fighting climate change of any country in the G7, as our greenhouse gas emissions have increased steadily since Trudeau was first elected in 2915. Five of the G7 countries have reduced their GHG emissions, while the sixth has increased GHG emissions at a much slower rate than Canada has.
To invest in unproven and dangerous nuclear plants now will guarantee that no progress will be made for at least 10 to 20 years, minimum. And it will give us more radioactive waste, much of it even more dangerous than the waste we already have. Can we afford to encourage this kind of behaviour with lavish government subsidies?
Small modular reactors not the solution

Small modular reactors not the solution – German nuclear authority assessments,
NEWS10 Mar 2021, Kerstine Appunn, Using a large fleet of small modular reactors (SMR) to secure climate neutral electricity supply in the future – as proposed by billionaire and philanthropist Bill Gates – poses many unsolved problems and security risks, two researcher assessments commissioned by the Federal Office for the Safety of Nuclear Waste Management (BASE) have found according to a report by Süddeutsche Zeitung (SZ). SMR proponents claim that, once produced in bulk, these small plants are cheaper and safer thanks to advanced reactor designs and can be operated with converted short-lived radioactive materials, solving the waste problem. But the two reports, seen by SZ, conclude that SMR “carry enormous risks with regard to the proliferation of weapons-grade materials and will probably never be as cheap as their advocates claim”, Michael Bauchmüller writes.
The paper by the Institute for Applied Ecology (Öko-Institut) found that in order to replace the 400 or so large reactors today, “many thousands to tens of thousands of SMR plants” would have to be built. But this raises questions for proliferation, the spread of dangerous nuclear material.
The second assessment by researchers from the Institute for Safety and Risk Sciences, at the Vienna University of Natural Resources and Applied Life Sciences, on nuclear waste aspects of SMR found in three scenarios that a repository for nuclear waste would remain necessary, and that the amount of low and medium level radioactive waste would increase “massively” during the dismantling of nuclear facilities.
Germany will shut down its last nuclear power plant by the end of 2022, according to the government’s phase-out legislation which is supported by a majority of the population. After the nuclear disaster in Fukushima ten years ago, Angela Merkel’s government decided to accelerate the phase-out of nuclear power in Germany where opposition to nuclear plants was one of the key causes leading to the founding of the country’s Green Party. Nuclear power is compensated for by expanding renewable sources wind, solar PV and biogas, as Germany strives for a climate neutral power supply by 2040 or 2050 at the latest.
Hurdles ahead for Rolls Royce small nuclear reactor development.

“SMR proponents argue that they can make up for the lost economies of scale by savings through mass manufacture in factories and resultant learning. But, to achieve such savings, these reactors have to be manufactured by the thousands, even under very optimistic assumptions about rates of learning.”
The Rolls Royce SMR design is not exactly small at 470 MWe.
SafeEnergy E Journal No.92. December 21 Rolls Royce’s Small Modular Reactors On 9th November the Government announced that it would back the Rolls-Royce Small Modular Reactor with £210m in funding. Matched by private sector funding of over £250 million, this investment will be used to further develop SMR design and start the Generic Design Assessment (GDA) process
The Government claims that SMRs have the potential to be less expensive to build than traditional nuclear power plants because of their smaller size, and because the modular nature of the components offers the potential for parts to be produced in dedicated factories and shipped by road to site – reducing construction time and cost.
But the reason why existing reactors are large is precisely to derive economies of scale: why smaller reactors should be more economic is problematic. Nuclear proponents allege that assembly-line technology will be used in reactor construction but this has yet to be shown in practice anywhere in the world.
Some say that SMRs are little more than wishful thinking. For example, Professor MV Ramana ‒ Simons Chair in Disarmament, Global and Human Security at the School of Public Policy and Global Affairs at the University of British Columbia – states:
“SMR proponents argue that they can make up for the lost economies of scale by savings through mass manufacture in factories and resultant learning. But, to achieve such savings, these reactors have to be manufactured by the thousands, even under very optimistic assumptions about rates of learning.” (1)
The Rolls Royce SMR design is not exactly small at 470 MWe. It is proposing to build 16 reactors at an expected cost around £1.8bn – £2.2bn and producing power at £40-60/MWh over 60 yrs. (2)

As well as the Government funding, Rolls-Royce has been backed by a consortium of private investors. The creation of the Rolls-Royce Small Modular Reactor (SMR) business was announced following a £195m cash injection from BNF Resources, and Exelon Generation to fund the plans over the next three years.(3)
Rolls Royce has submitted the SMR design to the GDA regulatory process, in a bid to secure clearance from the Department for Business, Energy and Industrial Strategy (BEIS) and the UK’s nuclear and environmental regulatory bodies. It expects the process to take around four to five years, during which time it plans to “engage in a range of parallel activities” including the SMR factory development, potential siting for future nuclear plants, and “commercial discussions”. (4)
Before the ONR approval process begins, the company must first get clearance from the government to submit its designs, which is expected by around March next year. (5)
As expected, Moorside, Wylfa and Trawsfynydd have all been mentioned as potential sites for an SMR. Tees Valley mayor Ben Houchen also wants Hartlepool to be on the list. (6) https://www.no2nuclearpower.org.uk/wp/wp-content/uploads/2021/11/SafeEnergy_No92.pdf
What might trip up the Rolls Royce plan for small nuclear reactors?

Fix the Planet newsletter: Can small nuclear power go big? Small modular reactors are being pitched as an affordable and fast way to decarbonise power grids but questions about the technology abound, New Scientist EARTH, 25 November 2021, By Adam Vaughan
”……… nuclear power did have a showing in Glasgow, at official events in the conference, deals on the sidelines and cropping up as a subject during press briefings.
One new technology popped up a few times: small modular reactors (SMRs), mini nuclear plants that would be built in a factory and transported to a site for assembly. A UK consortium led by Rolls-Royce wants to build a fleet in the country to export around the world as a low carbon complement to renewables. During COP26 the consortium received £210 million from the UK government. More private investment is expected soon.
Yet questions abound. Why should this technology succeed where large nuclear plants have failed to take off in recent years, beyond China? If they are small, will they make a sizeable enough dent in emissions? And will they arrive in time to make a difference to a rapidly warming world?……
What exactly is planned?
The reactors that Rolls-Royce SMR wants to build have been six years in development, with their roots in ones the company previously built for nuclear submarines. Despite being billed as small, the new reactor design is fairly large. Each would have 470 megawatts of capacity, a good deal bigger than the 300 MW usually seen as the ceiling for an SMR.
The consortium hopes to initially build four plants on existing nuclear sites around the UK. Ultimately it wants a fleet of 16 , enough to replace the amount of nuclear capacity expected to be lost in the UK this decade as ageing atomic plants retire. Later down the line, the SMRs could be exported around the world too.
Alastair Evans at Rolls-Royce SMR. says the first SMR would cost about £2.3 billion and could be operational by 2031. Later versions may fall to £1.8 billion, he claims. That may seem cheap compared to Hinkley, but an offshore wind farm with twice the capacity costs about £1 billion today, and that figure will be even lower in a decade’s time………….
What might trip them up?
SMRs have been in development for years but have made little inroads to date. The UK government has been talking about them for much of the past decade, with nothing to show. Progress elsewhere around the world has been slow, too. Outside of Russia there are no commercial SMRs connected to power grids. Even China, one of the few countries that has built new nuclear plants in recent years, only started construction of a demo SMR earlier this year, four years late. It wasn’t until last year that leading US firm NuScale had its design licensed by US authorities.
Paul Dorfman at the non-profit Nuclear Consulting Group, a body of academics critical of nuclear power, says the nuclear industry has always argued economies of scale will bring down costs so it is hard to see why going small will work. He says modularisation – making the reactors in factories – will only bring down costs if those factories have a full order book, which may not materialise. “It’s chicken and egg on the supply chain,” he says. He also notes the plants will still create radioactive waste (something another potential next gen nuclear technology, fusion, does not). And he fears nuclear sites near coasts and rivers will be increasingly vulnerable to the impacts of climate change, such as storm surges as seas rise.
What’s next? The Rolls-Royce SMR group this month submitted its reactor design for approval by the UK nuclear regulator, a process that could take around five years. It now needs to pick three locations for factories and start constructing them. The group also needs to win a Contract for Difference from the UK government, a guaranteed floor price for the electricity generated by the SMRs…….. https://www.newscientist.com/article/2299113-fix-the-planet-newsletter-can-small-nuclear-power-go-big/
Nuclear fusion for UK – to save the dying nuclear industry, and UK as a nuclear weapons state?
SafeEnergy E Journal No.92. December 21, Fusion Four sites in England and one in Scotland are on the final shortlist of sites to be the home of the UK’s prototype fusion energy plant. The government is backing plans for the Spherical Tokamak for Energy Production (Step) with a final decision on its location expected at the end of 2022. The UK Atomic Energy Authority (UKAEA) hope the plant will be operational by the early 2040s. The five shortlisted sites are: Ardeer, North Ayrshire; Goole, East Riding of Yorkshire; Moorside, Cumbria; Ratcliffe-on-Soar, Nottinghamshire; Severn Edge, Gloucestershire; They were whittled down from a longlist of 15 sites, which included Chapelcross near Annan and Dounreay. (1 …………
The Scottish Campaign for Nuclear Disarmament (CND) has said that this latest effort to extol the virtues of nuclear fusion as a “low carbon” source of energy is to keep the industry “alive” due to the UK being a “nuclear weapon state”. (5)………https://www.no2nuclearpower.org.uk/wp/wp-content/uploads/2021/11/SafeEnergy_No92.pdf
Are small nuclear reactors actually small, safe, economic ?
Can Small Nuclear Reactors Really Help The Climate? QuickTake, Jonathan Tirone 27 Nov 2021 (Bloomberg) — Much of the world has been turning away from nuclear power, with its aging plants, legacy of meltdowns and radioactive waste. But some governments, big companies and billionaires including Bill Gates and Warren Buffett are convinced the technology can help save the planet.
1. How small is small? Of the more than 70 such reactors that the International Atomic Energy Agency lists as in some stage of design or development, the smallest are less than 5 meters (16 feet) in diameter and 10 meters in height. (The plant that would be built to operate the reactor would be bigger, of course.) SMRs typically have less than 300 megawatts of generating capacity, about a third of that of existing reactors.
…………. Do SMRs already exist? The only ones currently in commercial operation are two 35-megawatt units on a floating power plant deployed by Russia in the Arctic in 2020. China expects to begin trials in 2026 on an SMR being built near an existing power plant on Hainan island. The first commercial SMR project in the U.S., planned for the site of the Idaho National Laboratory, will consist of six reactors capable of producing a combined 462 megawatts. It’s supposed to be operational by the end of this decade.
…………….. smaller reactors would ideally be located closer to population centers, increasing the possible danger from an accident. And like their larger brethren, SMRs produce radioactive waste that must be stored safely for centuries.
………….. What are the economic challenges? Cost competitiveness is an uphill climb. U.S. manufacturer NuScale Power LLC, to cite one example, is aiming for an SMR that can sell power for $55 per megawatt-hour. Yet wind power in much of the world is now about $44 a megawatt-hour, solar is $50, and in some regions, renewable energy will be below $20 a megawatt-hour by the end of the decade, according to BloombergNEF. A 2020 study by professors at the University of British Columbia found that on a lifetime basis, the cost of electricity produced by SMRs could be 10 times greater than the cost of electricity produced by diesel fuel.
Who’s investing in SMRs? Electricite de France, China National Nuclear, Japan’s Toshiba and Russia’s Rosatom are pushing SMR designs, as is NuScale. Gates and Buffett have teamed up to build and test a reactor at an abandoned coal plant in Wyoming. Rolls-Royce Holdings Plc raised 455 million pounds ($608 million) to fund the development of SMRs, with almost half of the financing coming from the U.K government.
Read more at: https://www.bloombergquint.com/quicktakes/can-small-nuclear-reactors-really-help-the-climate-quicktake
Nuclear Fusion Recedes Into Far Future For The 57th Time

Fusion Recedes Into Far Future For The 57th Time, Clean Technica, Fusion has an amazing future as a source of energy. In space craft beyond the orbit of Jupiter sometime in the next two centuries. By Michael Barnard, November 9, 2021 Fusion has an amazing future as a source of energy. Which is to say, in space craft beyond the orbit of Jupiter, sometime in the next two centuries. Here on Earth? Not so much. At least, that’s my opinion.
Nuclear electrical generation has 2.5 paths. The first is nuclear fission, the part that is the major electrical generation source that provides about 10% of the electricity in the world today.
And then there’s fusion. Where fission splits atoms, fusion merges them. Instead of radioactive fuel, there’s a lot of radioactive emissions from the merging of things like hydrogen-3, deuterium, and tritium that irradiates the containment structures. Lower radioactive waste that doesn’t last as long, but still radioactive waste for those who think that’s a concern…….
fusion generation of electricity, as opposed to big honking nuclear weapons using fusion, is a perpetual source of interest. When Lewis Strauss, then chairman of the United States Atomic Energy Commission, talked about nuclear being “too cheap to meter” in 1954, he was talking about fusion, not fission. Like everyone since the mid-1950s, he assumed that fusion would be generating power in 20 years.
And so here we are, 67 years later. How is fusion doing?
Let’s start with the only credible fusion project on the planet, the ITER Tokamak project. It’s been around for decades. It planted its roots in 1985 with Gorbachev and Reagan. 35 countries are involved. Oddly, ITER isn’t an acronym, it’s Latin for “The Way,” a typically optimistic and indeed somewhat arrogant assumption about its place in the universe.
It’s supposed to light up around 2040. That’s so far away I hadn’t bothered to think much about it, as we have to decarbonize well over 50% of our economy long before that. As a result, I had a lazy read on it. I had assumed, as most press and indeed pretty much everyone involved with it asserted, that it would be generating more energy than it consumed, when it finally lit up…………..
ITER will require about 200 MW of energy input in total running as it creates 500 MW of heat. But the exergy of heat means that if it were tapped, it would only return about 200 MW of electricity. So it might be a perpetual motion machine, but one that wouldn’t do anything more than keep its lights running as long as you fed it tritium, about $140 million worth of the stuff a year.
And it gets worse. ITER is planning at the end of this process to maintain this for less than 3000 seconds at a time. That’s 50 minutes. This is at the end of the process. As they build up to less than an hour, mostly they’ll be working on fusion that lasts five minutes, several times a day. It’s a very expensive physics experiment that will not produce climate-friendly energy. It’s going to teach us a bunch, which I completely respect, but it’s not going to help us deal with climate change.
I expected more from ITER. Not much more. I mean, it is a million-component fission reactor expected to light up in 2040 and not generate any electricity at that point. But I had assumed based on all the press that it would generate more electricity than it used to operate if you bolted a boiler and some turbines to it, even if it were grossly expensive. Apparently not. Just grossly expensive, no net new electricity………..
However, ITER is not the only fusion reactor in the game. There are startups! And we all know startups make no promises that they can’t keep and are excellent at disclosure.
Like Helion. They have a photo-shopped peanut asserting it’s a 6th prototype with regenerative power creation that’s never achieved fusion that is backed by Peter Thiel! It just received $500 million more of VC funding, with an option to get up to $2.2 billion if they hit their targets!
I’m not sure if I could have made up a paragraph less likely to make me think that there was some there there.
The website is likely intentionally lacking in anything approaching detail. It’s low-information and VC friendly, which in the energy space is Thiel’s jam. He’s the guy who, despite being partnered with Elon Musk, has never realized that electrical generation was already being disrupted by wind and solar. His acolytes in startups disrupting energy crashed and burned, because he and they never bothered to do the hard work of understanding how electricity actually works at grid scale. At least Musk was solid on solar, although he got the wrong end of it and hasn’t quite figured that out yet.
While Helion has achieved 100 million degrees Celsius, it’s with a high-energy laser pulse — not new ideas, in fact 1950s ideas, just easier now — and they are incredibly coy about duration. The assumption to be taken is that it lasts for a picosecond at a time. They talk about their prototype having worked for months, but that means it’s maintaining a vacuum and occasionally creating plasma, a precursor to fueled fusion. Many years and tens of millions of dollars in, they are promising the moon, and soon. And to be clear, they are well behind on their initial schedule…………..
fusion generating electricity appears to be as far away as ever. https://cleantechnica.com/2021/11/09/breaking-news-fusion-recedes-into-far-future-for-the-57th-time/
Scientists Warn Experimental Nuclear Plant Backed by Bill Gates Is ‘Outright Dangerous’

“fast breeder reactor” types “are proliferation nightmares.“
Continuing to support nuclear energy at the expense of faster and cheaper alternatives for cutting greenhouse gas emissions is a losing strategy.“
Scientists Warn Experimental Nuclear Plant Backed by Bill Gates Is ‘Outright Dangerous’ “Gates has continually downplayed the role of proven, safe renewable energy technology in decarbonizing our economy.” Common Dreams ANDREA GERMANOS, November 17, 2021 Officials announced Tuesday that the small city of Kemmerer, Wyoming would be the site of a new Bill Gates-backed nuclear power project—an initiative whose proponents say would provide climate-friendly and affordable energy but which some scientists warn is a dangerous diversion from true energy solutions.
The experimental Natrium nuclear power plant will be at the site of the coal-fired Naughton Power Plant, slated for retirement in 2025, though siting issues are not yet finalized. The company behind the project is TerraPower. Gates, who helped found TerraPower, is chairman of the board.
Mr. Gates,” nuclear expert Arnie Gundersen wrote in an open letter in August, Natrium “is following in the footsteps of a 70-year-long record of sodium-cooled nuclear technological failures. Your plan to recycle those failures and resurrect liquid sodium again will siphon valuable public funds and research from inexpensive and proven renewable energy alternatives.”………….
A feature of the future plant, TerraPower says, is “a molten salt-based energy storage system”—technology it claims represents “a significant advance over the light water reactor plants in use today.”
At a June press conference, Gates said Natrium was poised to “be a game-changer for the energy industry.” In a Tuesday tweet, Republican Sen. John Barrasso of Wyoming gave a similar message, saying “the Natrium reactor is the future of nuclear energy in America.”
While the company asserts the safety of Natrium’s sodium-cooled fast reactor, a report released in March by the Union of Concerned Scientists, entitled “Advanced” Isn’t Always Better, casts doubt on those claims.
UCS’s Elliott Negin highlighted the analysis in a June blog post, writing:
In fact, according to the UCS report, sodium-cooled fast reactors would likely be less uranium-efficient and would not reduce the amount of waste that requires long-term isolation. They also could experience safety problems that are not an issue for light-water reactors. Sodium coolant, for example, can burn when exposed to air or water, and the Natrium’s design could experience uncontrollable power increases that result in rapid core melting.
“When it comes to safety and security, sodium-cooled fast reactors and molten salt–fueled reactors are significantly worse than conventional light-water reactors,” says [report author Edwin] Lyman. “High-temperature gas-cooled reactors may have the potential to be safer, but that remains unproven, and problems have come up during recent fuel safety tests.”
Fast reactors have another major drawback. “Historically,” the report points out, “fast reactors have required plutonium or [highly enriched uranium]-based fuels, both of which could be readily used in nuclear weapons and therefore entail unacceptable risks of nuclear proliferation and nuclear terrorism.” Some fast reactors, including the Natrium, will initially use a lower-enriched uranium fuel, called high-assay low-enriched uranium, which poses a lower proliferation risk than highly enriched uranium, but it is more attractive to terrorists seeking nuclear weapons than the much lower-enriched fuel that current light-water reactors use.
Continue reading”Billionaires who fly into space to produce nothing of scientific value” -on hearing that, Jeff Bezos hires lobbyist!

Bezos’ Blue Origin Hires Lobbyist Tied to Obama Admin After Space Tax Proposed, https://sputniknews.com/20211118/bezos-blue-origin-hires-lobbyist-tied-to-obama-admin-after-space-tax-proposed-1090824789.html
The company decided it needs the lobbyist’s services after US representative Earl Blumenauer, proposed a tax on space exploration firms. The Democratic lawmaker made his statement on 20 July – the day when Bezos himself went to space in Blue Origin’s first crewed flight.
“Space exploration isn’t a tax-free holiday for the wealthy. Just as normal Americans pay taxes when they buy airline tickets, billionaires who fly into space to produce nothing of scientific value should do the same, and then some”, he said in a statement at the time. “I’m not opposed to this type of space innovation. However, things that are done purely for tourism or entertainment, and that don’t have a scientific purpose, should, in turn, support the public good”.
NASA seeks ideas for a nuclear reactor on the moon – submissions due by February 19 2022

NASA seeks ideas for a nuclear reactor on the moon abc news, 20 Nov 21
If anyone has a good idea on how to put a nuclear fission power plant on the moon, the U.S. government wants to hear about itBy KEITH RIDLER Associated Press BOISE, Idaho — If anyone has a good idea on how to put a nuclear fission power plant on the moon, the U.S. government wants to hear about it.
NASA and the nation’s top federal nuclear research lab on Friday put out a request for proposals for a fission surface power system.
NASA is collaborating with the U.S. Department of Energy’s Idaho National Laboratory to establish a sun-independent power source for missions to the moon by the end of the decade…….
The reactor would be built on Earth and then sent to the moon…….
The proposal requests are for an initial system design and must be submitted by Feb. 19. https://abcnews.go.com/Technology/wireStory/nasa-seeks-ideas-nuclear-reactor-moon-81282960
Despite the frantic nuclear lobbying at COP26, Rolls Royce’s small nuclear reactors will be of zero use against greenhouse emissions – Jonathon Porritt

Rolls-Royce talks of the first plant ‘coming online by 2031’ – do please do the maths yourself. So let’s say 2035, to be generous, at the earliest. And therefore of zero benefit in terms of meeting the Government’s own target of a 78% reduction in greenhouse gas emissions by 2035.
It’s all such a pathetic waste of time – and of taxpayers’ money. Whatever the timescale, SMRs will never compete with renewables plus storage.
COP6 ‘Nuclear Sidebar, http://www.jonathonporritt.com/cop26s-nuclear-sidebar/ Jonathon Porrit, 6 Nov 21, The fact that COP26 was crawling with huge numbers of delegates from Big Oil and Gas got a lot of attention from the media. Less attention was paid to the large number of pro-nuclear delegates parasitically inserting themselves into as many events as they could engineer access to – facilitated at every turn by BEIS Secretary of State Kwasi Kwarteng and Booster Boris himself..
The nuclear industry had its own short-lived moment in the sun, on 9th November. For what is now reckoned to be the fourth time, Kwasi Kwarteng went over the top to re-re-re-confirm the Government’s enthusiasm for Small Modular Reactors, re-re-re-promising (a rather miserly) £210m of Government money for Rolls-Royce, described by Kwasi Kwarteng as ‘a once in a lifetime opportunity’.
Rolls-Royce duly obliged, conjuring up another £250m of private sector investment to deliver a new fleet of at least five SMRs (and possibly as many as 16) at around £2.2bn a pop. The company’s share price duly went up by around 4%. Job done.
It doesn’t matter how many times Ministers bang this particular drum, or how many times deplorably gullible journalists in the BBC, FT, Times and the Telegraph suck it all up, moonshine is still moonshine.
In and of itself, that £460m buys practically nothing. It will allow Rolls-Royce to take whatever design they finally settle on through the Generic Design Assessment process. This will take no less than four years, and probably more than five. Even if (and it’s a big IF) regulatory approval is secured, private sector investors will still have to be found, sites identified and planning permission for each site secured – a process which can take years.
Rolls-Royce talks of the first plant ‘coming online by 2031’ – do please do the maths yourself. So let’s say 2035, to be generous, at the earliest. And therefore of zero benefit in terms of meeting the Government’s own target of a 78% reduction in greenhouse gas emissions by 2035.
It’s all such a pathetic waste of time – and of taxpayers’ money. Whatever the timescale, SMRs will never compete with renewables plus storage.
To be fair, it would be wrong to underestimate the importance here of energy security – meeting our energy needs from home-based, ‘indigenous’ capacity. Boris Johnson keeps banging on about ‘British wind and sunshine’ – mindful perhaps of a recent poll of Daily Express readers, of whom 97.5% said that Boris ‘should pledge to make Britain self-sufficient in energy production by 2050’.
On that basis, British nuclear electrons are therefore much more desirable than those unreliable French electrons, regardless of the fact that we wouldn’t have any new nuclear electrons coming on-stream were it not for Electricité de France.
COP26 was of course a global gathering. UK energy security was therefore less of an issue. But it got a bit of an airing on 12th November, when the two big tidal stream companies here in the UK (Nova Innovation and Atlantis Energy) made a big splash about the huge potential for tidal stream technology in Scotland – with a potential capacity of more than 500 MW. This is a proven technology (with turbines anchored to the sea floor to capture the power of tidal currents) – already delivering suitably ‘indigenous’ electrons – with no moonshine to be seen anywhere.
The potential for tidal stream is indeed significant – not just in the UK, but internationally.
However, for me personally, it’s still relatively small beer in comparison to tidal range – harnessing the power of the tides to generate huge amounts of electricity from either tidal lagoons or barrages, predictably, cost-effectively, over many decades.
If our Government was genuinely serious about energy security (instead of finding ways of propping up Rolls-Royce to support our nuclear weapons programme), tidal power would be top of its list.
But is it heck! So please check out my blog about tidal energy which follows shortly.
UK’s small nuclear reactor consortium indicates that it will be relying on tax-payer funding if it is to go ahead

State support a fallback option for UK’s mini-nuclear plants rollout.
The head of the consortium, which is developing a £ 30 billion fleet of
mini-nuclear power stations, has indicated that it will have to rely on UK
taxpayers to help fund the construction of the first of the new designs if
there is not enough investor interest.
FT 10th Nov 2021
https://www.ft.com/content/869279aa-f771-4025-8719-c3b8bdf1f375
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