Another city leaves small nuclear reactor project – unanimous vote by Murray City Council, Utah
Murray City votes to withdraw from nuclear power project, Salt Lake Tribune, By Taylor Stevens– 23 Oct 20, The Murray City Council voted unanimously this week to back out of a first-of-its-kind nuclear power project that has the support of a number of Utah municipalities.
It’s the fourth Utah city to exit the small modular nuclear reactor pursuit over the last few months amid pressure from opponents who have raised concerns about environmental and financial risks of the proposed 12-module plant, which would be located at Idaho National Laboratory in Idaho Falls and produce a total 720 megawatts of electricity.
During the city’s Tuesday council meeting, Murray Power Manager Blaine Haacke outlined several advantages of the project, including the potential that it could fill the energy gap that will be left when the Hunter Power Plant in Castle Dale goes offline in the coming years.
He told the council that he expects UAMPS will carry the project forward without Murray. But he said the association’s members will meet during the first week of November to make a final decision, after they find out how many cities have exited.
Very dubious claims made by proponents of NuScam’s small nuclear reactor plans
Small Nuclear Reactors Would Provide [a dubious claim] Carbon-Free Energy, but Would They Be Safe? Inside Climate News, Jonathan Moens, -21 Oct 20 Regulators have approved designs for 12 small reactors to be built in Idaho, but opponents say the project is dangerous and too late to fight climate change. “……… Last month, U.S. officials approved NuScale Power’s designs for 12 small nuclear reactors to be built in Boise, Idaho. The reactors could make use of the water, transmission lines and general infrastructure of former coal-powered plants in the West to produce clean energy, said Jose Reyes, co-founder of the company.
NuScale said the energy produced by its reactors would generate enough electricity to power about 50,000 homes across six Western states. The Utah Associated Municipal Power Systems, an energy cooperative, would be the first to build the reactors on a federal site at the Idaho National Laboratory.
The NuScale Power initiative has met with opposition from local environmental groups, who say that nuclear power is a dangerous and unsustainable energy source.
In addition, the highly radioactive waste from nuclear reactors must be securely stored indefinitely to prevent accidents, and contains plutonium and uranium that can be reprocessed into nuclear weapons. “We see this project as a way to create a whole new generation of high level radioactive waste,” said Scott Williams, executive director of Healthy Environment Alliance of Utah, a nuclear watchdog. ……
The designs underwent a public health and safety review by the Nuclear Regulatory Commission. But some scientists think they still aren’t safe enough. In a public statement, Edwin Lyman, director of nuclear power safety with the Union of Concerned Scientists, cited a report by a senior engineer at the Nuclear Regulatory Commission expressing concern that the cooling process might inadvertently cause “catastrophic” core damage to the reactors.
Other scientists worry that NuScale may be getting ahead of itself by not having a planning protocol for a radioactive emergency that affects areas around the site.
“In the event of an accident, the people around there will not have rehearsed how to do an evacuation,” said M.V. Ramana, a professor in the School of Public Policy and Global Affairs at the University of British Columbia. …….
Too Late in a Climate Crisis?
The municipal power systems cooperative still needs to obtain a license to build and begin operating the reactors. To do so, the project will undergo an additional site-specific review to consider the potential ecological, geographic and residential impact the technology may have on the area, said George Griffith, lead technician at the Idaho National Laboratory.
The delay means that while NuScale will be ready to manufacture modular reactors by around 2024, it will take an additional five to six years for them to be operational at the Idaho site, said Reyes.
Some experts, however, question whether 2029 is too late for the technology to be relevant in a time of climate crisis…….
Ramana, of the University of British Columbia, said, “While the overall capital cost [for small modular reactors] might be smaller, they also generate smaller amounts of electricity.” He outlined his concerns in a report released in September urging the Utah energy cooperative to “end their pursuit of small modular reactors.”
Ramana made clear that while devastating incidents associated with nuclear power plants might seem unlikely, we need to remain cautious.
“The lesson we should learn from all the many nuclear and other accidents that have happened with hazardous technologies, is a little bit of humility,” he said. https://insideclimatenews.org/news/20102020/small-nuclear-reactors-carbon-free-energy
Nuclear industry stagnates, renewables thrive- small nuclear reactors will be a terrible mistake for Canada
WORLD NUCLEAR INDUSTRY LOSES GROUND TO CHEAP RENEWABLES AS CANADA CONSIDERS SMALL MODULAR REACTORS, The Energy Mix SEPTEMBER 27, 2020 MITCHELL BEER @MITCHELLBEER
The world nuclear industry “continues to be in stasis,” with power plants shutting down at a faster rate in western Europe and the United States, the number of operating reactor units at a 30-year low, and the few new construction projects running into “catastrophic cost overruns and schedule slippages,” according to the latest edition of the annual World Nuclear Industry Status Report (WNISR), released last week. “Some 408 nuclear reactors were in operation in 31 countries as of July 2020, a decline of nine units from mid-2019 and 30 fewer than the 2002 peak of 438,” Reuters writes, citing the report. “The slow pace of new projects coming onstream also increased the overall age of the global fleet to around 31 years.” “Overall, in terms of the cost of power, new nuclear is clearly losing to wind and photovoltaics,” with the two renewable technologies now receiving about 10 times the investment, write Jungmin Kang, former chair of South Korea’s Nuclear Safety and Security Commission, South Korea, and Princeton University Professor Emeritus Frank von Hippel, in their foreword to the 361-page report. That meant new nuclear projects “were struggling to secure finance amid competition from renewables, with reported investment decisions for the construction of new nuclear plants at around US$31 billion in 2019,” Reuters says. One of the problems facing nuclear plants is that their high capital cost “requires that they operate almost continually to bring down the capital charge per kilowatt-hour,” Kang and von Hippel explain. “They must therefore compete directly with renewables most of the time or store their output to be used during cloudy, windless periods.” But “storage does not relieve the competition with wind and solar” since, “as renewables expand and storage costs come down, they too will have increasing incentives to store their excess output.” The report focuses in on COVID-19 as the first pandemic to have a significant, direct impact on the global nuclear industry, with large numbers of infections reported by the few operators that released precise figures. The WNISR says the pandemic has led to degraded safety and security and critical staffing issues at operating nuclear plants that also faced a tough economic hit when crashing electricity demand drove down power prices. In 2019, Russia had a hand in 15 of the 52 new nuclear construction projects around the world, and electricity generation from nuclear facilities grew 3.7%, with half of that total attributable to a 19% increase in China. But 33 of the 52 projects were behind schedule, and eight had been delayed by 10 years or more, “including two units that had construction starts 35 years ago and one unit that goes back 44 years,” WNISR notes. Of the 13 reactors scheduled for start-up last year, “only six made it,” including three in Russia, two in China, and one in South Korea—and no new nuclear facilities went online in the first half of 2020. Meanwhile, non-hydro renewables installed 184 gigawatts of new capacity in 2019, and “comparisons between nuclear and solar options show a large and widening gap,” the report states. “For example, a contract for 1.2 GW of solar power at US$24.20 per megawatt-hour, signed in 2017 and connected to the grid in 2019, is five to eight times cheaper than the international cost estimate for nuclear of US$118 to $192 per MWh.” [And that’s before the cost overruns that seems to be inevitable with most nuclear projects—Ed.] While “the biggest social argument for nuclear power plants is that their carbon emissions are low,” Kang and von Hippel write, that line of thought leads more toward refurbishing existing reactors—an area where the industry is also struggling. “In some major countries such as the United States, even 30-year-old plants whose capital costs have been paid off cannot compete economically with new renewable power plants, whose capital costs have been declining. The operating costs of nuclear plants are high in part because one to two hundred workers and guards are required onsite per reactor at all times in case of accident or terrorist attack.” And earlier this month, an incident in South Korea raised concerns about the reliability of nuclear generation in an era when climate change will make severe weather events more common and severe. The Kori nuclear plant was supplying 7% of the country’s electricity until it went into an automatic shutdown “because of typhoon impacts on their power transmission lines,” the two reviewers state. “Experts are concerned that, under different circumstances, the sudden shutdowns could destabilize South Korea’s grid and cause large-scale blackouts.” Paris-based consultant and lead WNISR author Mycle Schneider said the long-term headwinds facing nuclear development are even more daunting than the annual snapshot. Don’t just look at the photograph. Look at the movie,” he told The Energy Mix in an interview last week. “It takes an average of roughly 10 years to build a nuclear power plant from official construction start to grid connection,” even when a project isn’t delayed—which raises a particularly tough series of questions in the midst of a global climate emergency. “If I’m spending a dollar or a Euro or a yuan, I have to spend it in a way that allows me to reducogical renaissance through small modular reactors (SMRs). But “the industry is actually selling PowerPoint reactors, not detailed engineering, and it’s not the first time. They’ve been doing this for decades,” Schneider said. “Nobody, not even industry, pretends they can produce anything before 2030. That’s the earliest,” when 2050 is the latest possible deadline to decarbonize the entire global economy. Which means that, when it comes to SMRs, “it’s already very simple—it’s much too late, and we don’t know if it’ll work or what it’ll cost.”……….. “If I’m spending a dollar or a Euro or a yuan, I have to spend it in a way that allows me to reduce GHG emissions the most per dollar invested, the fastest.” Schneider said. But “if you look at nuclear power, it’s not only the most expensive, but it’s by far the slowest.” With even French nuclear giant EDF bidding against its own legacy technology to supply lower-cost solar projects, “do we really have to discuss what the future is or where this goes?” Schneider asked. “It’s obvious.” More recently, the nuclear industry has been promising a technological renaissance through small modular reactors (SMRs). But “the industry is actually selling PowerPoint reactors, not detailed engineering, and it’s not the first time. They’ve been doing this for decades,” Schneider said. “Nobody, not even industry, pretends they can produce anything before 2030. That’s the earliest,” when 2050 is the latest possible deadline to decarbonize the entire global economy. Which means that, when it comes to SMRs, “it’s already very simple—it’s much too late, and we don’t know if it’ll work or what it’ll cost.”……….. “Betting on nuclear as a climate solution is just sticking our heads in the sand because SMR technology is decades away, extremely expensive, and comes with a nasty pile of security and waste headaches,” Gibbons writes. “That our government would be this gullible is distressing, especially given the havoc already being wreaked by a changing climate.” Against concerns about intermittency of solar and wind, “it is fortunate that in Ontario we live beside a giant battery,” he adds. OCAA has long been an advocate for cross-border hydropower imports from Quebec to Ontario, and in the Sun, Gibbons notes that “Quebec has an enormous water power reservoir system that Hydro-Québec is keen to integrate with renewable sources for its out-of-province customers. When we have surplus solar and wind, Quebec stores water. When not, it produces hydropower for export.” The two provinces already “have the connections necessary to make this system work and can expand them, at a cost that looks like spare change next to what it costs to rebuild a nuclear reactor or get an SMR prototype built,” he adds. https://theenergymix.com/2020/09/27/world-nuclear-industry-loses-ground-to-cheap-renewables-as-canada-considers-small-modular-reactors/ |
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Small Nuclear Reactors on the moon- desperate hope for the failing nuclear industry
While our species’ insatiable scientific curiosity has undoubtedly led to some beneficial inventions, it has also drawn us inexorably towards our own downfall. Our zeal to create the atomic bomb ignored logic, ethics, consequences and the fundamentals of human rights.
The bomb brought us so-called civil nuclear power reactors, the ugly and irresponsible spawn of a weapon that leaves us perched perpetually on the precipice of extinction. But there is nothing “civil” about nuclear power.
At the dawn of the nuclear energy age, not a thought was given to the legacy of deadly radioactive waste it would produce. That can was kicked summarily down the road. Now we are far down that road and no solution has been arrived at, while we ignore the one obvious one: stop making more of it!
So now comes the news that the US wants to put nuclear power reactors on the Moon.
In the news stories that followed the announcement, replete with the usual excitement about space exploration (never mind the cost and bellicose implications) there was not one single mention of the radioactive waste these reactors would produce.
The problem, like the waste itself, will simply be kicked into some invisible crater on the dark side of the Moon.
NASA, the US Department of Energy and assorted nuclear labs are pushing the small modular reactor for nuclear projects on the
Moon and Mars. Desperate to stay relevant and to continue gobbling up taxpayer dollars, this is music to the failing nuclear industry’s ears. Financially disastrous and technically unresolved on Earth, the SMR, say these “experts”, is ideally suited to the needs of humans living for extensive periods in space.
Since each of these mini-reactors will likely have an uninterrupted output of only 10 kilowatts, it will take multiple reactors on the Moon or Mars to fulfill the necessary functions for their human inhabitants.
Needless to say, so far there is no certified design, no test reactor, no actual reactor, and no fool-proof way to send such a reactor to the Moon. (Rockets have an unfortunate habit of sometimes blowing up on — or shortly after — launch.) Nevertheless, the year 2026 is the ambitious target date for all systems go. In keeping with the theme, “pie in the sky” springs to mind.
While no reactor design has been identified, it will most likely need to use highly enriched uranium (HEU) which puts the reactor firmly in violation of non-proliferation standards. As Dr. Edwin Lyman of the Union of Concerned Scientists told PBS Newshour, “This may drive or start an international space race to build and deploy new types of reactors requiring highly enriched uranium.”
Given the utility of HEU for nuclear weapons use, and the probes currently being sent to the Moon and Mars by “unfriendly” countries such as China and the United Arab Emirates, it does not take much of an imagination to envisage the temptation for theft by force. Will the US deploy guards around its lunar reactors.? Will we see terrorism on the Moon, even war?
What is this really all about? Profit? Prestige? Proliferation? The Idaho National Laboratory, which is eager to develop the lunar SMR prototype, sees this as an opportunity to emphasize “the United States’ global leadership in nuclear innovation,” the lab’s John Wagner told Newshour.
This echoes the mantra parroted by almost every federal institution and corporation seeking to justify some new and exorbitant nuclear expense: we cannot let China and Russia take over; the US must retain — or regain — pre-eminence in the nuclear sector and in space. And so on.
It’s not being cute to call this lunacy. With the ever-expanding crises on Earth, caused by the ravaging effects of climate change as well as the current pandemic, spending exorbitant sums to stick reactors on the Moon or Mars is more than madness; it is morally irresponsible. It abandons most of us on Earth to our fate, while, just maybe, possibly, someday, a handful of people will head off to the Red Planet. Never to return.
Yet undeterred by immorality and expense, and apparently without the slightest concern for the radioactive dirt pile these reactors will produce, NASA and the Department of Energy are eagerly soliciting proposals.
And what will these lunar reactors do? They will enable “capability for a sustained lunar presence, particularly for surviving a lunar night,” NASA’s Anthony Calomino told Space News. “The surface of the moon provides us an opportunity to fabricate, test and flight qualify a space fission system,” he said.
The Moon is seen as our launchpad to Mars. Now, it seems, it will also become our latest nuclear dustbin. If there is a meltdown, or a cascade of accidents among the cluster of small identical reactors there, all of which could suffer the same failure at the same time, it will become our next nuclear wasteland.
I am happy to say “goodnight moon.” But I don’t wan’t to say “goodbye.”
Hypocrisy prize to U.S. International Development Finance Corporation (DFC), for pretending that NuScam’s Small Nuclear Reactors are ”foreign aid”
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DFC Convenes U.S., African Leaders for Investment Conference, U.S. International Development Finance Corporation (DFC), October 16, 2020 Announces new efforts aimed at bolstering agency’s reach across continent. WASHINGTON – Today, U.S. International Development Finance Corporation (DFC) and the Atlantic Council hosted the virtual Investing in Africa’s Future conference to bring together African heads of state, senior U.S. government officials, African development finance institutions and others to announce new efforts to promote and strengthen U.S. trade and investment in Africa, in support of the Administration’s Prosper Africa Initiative…….. DFC made the following announcements during the summit: …………
LOI for Nuclear in South Africa: In July 2020, DFC updated and modernized its nuclear energy policy—ending its prohibition on supporting nuclear power in order to help meet the energy needs in the developing world. DFC signed a Letter of Intent to support NuScale, a U.S. nuclear energy technology firm, to develop 2,500 MW of nuclear energy in South Africa. If successful, NuScale would be the first U.S. nuclear energy IPP on the continent and would help support energy resilience and security in one of Africa’s leading economies and a key partner on the continent for the United States Government……….. https://www.dfc.gov/media/press-releases/dfc-convenes-us-african-leaders-investment-conference
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Canada’s government caught up in the Small Nuclear Reactor Ponzi Scheme
Why is the federal government funding new nuclear power reactors? rabble.ca Susan O’Donnell, October 15, 2020
Today, the government made its first SMR funding announcement: $20 million from ISED’s Strategic Innovation Fund for the company Terrestrial Energy to develop its prototype SMR in Ontario.
Anyone interested in evidence-based policy is wondering: Why are they doing this? There is no evidence that nuclear power will achieve carbon reduction targets, while there is considerable research indicating the contrary.
In fact, in today’s funding announcement, federal Natural Resources Minister Seamus O’Regan confirmed that the new reactor will take more than a decade to develop and will contribute nothing to Canada’s 2030 target for reducing greenhouse gas (GHG) emissions.
The same week as the throne speech, the release of the 2020 World Nuclear Industry Status Report (WNISR) confirmed, as did its previous reports, that developing new nuclear energy is too slow and uneconomical to address the climate crisis compared to deploying renewable energy technologies.
Last week, research based on data from 123 countries over a 25-year period made a similar finding. December 2019 research from Stanford professor Mark Z. Jacobson refutes claims that nuclear energy is zero-carbon. A November 2019 article in the American business magazine Forbes argues that building new nuclear reactors instead of investing in more climate-effective energy resources actually makes climate change worse.
SMRs, the nuclear reactors promoted by the federal government, are in particular over-hyped as a climate crisis solution. SMRs have been proposed as a solution for remote communities and mining sites currently relying on diesel fuel but new research has found the potential market is too small to be viable.
SMRs exist only as computer models and nobody knows for sure if they will work. Last month, the Canadian energy watchdog The Energy Mix interviewed WNISR lead author Mycle Schneider, who called SMRs “PowerPoint reactors, not detailed engineering.”
Given all the research evidence pointing away from funding nuclear energy in a climate action plan, why is the federal government proposing to do it?
In a webinar presentation earlier this year, the president of the Canadian Coalition for Nuclear Responsibility Gordon Edwards put it bluntly: “The nuclear industry is desperate.”
Edwards believes the federal government’s push for new reactor development is coming from the nuclear industry. “If they can, the nuclear industry will convince governments to pour public money into this for whatever reason, by misrepresenting its advantages and minimizing or even ignoring its disadvantages.”……….
Nuclear reactor promoters are “barely keeping themselves alive,” said Edwards, and have realized for quite a while that “they are in trouble.”
The federal government created the nuclear industry in Canada and has funded it since the late 1940s. For more than 70 years Canada has been spending vast sums of public money to keep it going. Atomic Energy of Canada Limited (AECL), a Crown corporation with a mandate to promote and support nuclear science and technology and manage nuclear waste in Canada, received $826 million from the federal government in 2017-2018. Most of the public funds are turned over to a private-sector entity, Canadian Nuclear Laboratories, whose majority partner is SNC Lavalin.
One description of the nuclear industry in Canada is that it can be understood as a kind of Ponzi scheme. In its current corporate plan, AECL listed a cost liability of almost $6.4 billion for decommissioning and waste management provision and $988 million for contaminated sites in 2017-18.
The industry needs new nuclear reactors as a replacement revenue stream. New reactors require capital investment but no banks or private investors are willing to invest due to the poor return on investment. Public funding is the only option to keep the industry alive and pay off its liabilities, and more public money is always required or the entire scheme will collapse. ……..
a revolving door shuttles senior government personnel involved in nuclear energy files to the CNA lobby. In one recent example, the former parliamentary secretary to the minister of natural resources who was responsible for nuclear policy is now a consultant for the CNA.
Former senior AECL executives and government nuclear energy staff are now establishing and managing various start-up nuclear companies actively seeking public funding from the federal government. And according to the throne speech, the money is available…….
The Canadian government’s plans to invest in nuclear energy contrast with the European Union’s proposed Green New Deal released in June this year that specifically excludes investment in nuclear energy because of its harmful environmental impacts. The decision followed sustainable finance guidelines also adopted this year and developed in a process that included environmental and other civil society groups as well as energy industry representatives……….https://rabble.ca/blogs/bloggers/views-expressed/2020/10/why-federal-government-funding-new-nuclear-power-reactors#.X4t38dAXWFc.twitter
USA marketing NuScam small nuclear reactors to Africa

US to support new nuclear power project in South Africa https://businesstech.co.za/news/energy/441510/us-to-support-new-nuclear-power-project-in-south-africa/, Bloomberg17 October 2020 The United States International Development Finance Corp. pledged to support NuScale Power LLC, a US nuclear energy technology firm, to develop 2,500 megawatts of power in South Africa.
South Africa’s government drafted an economic recovery plan in conjunction with business and labour groups several months ago in a bargaining forum known as the National Economic Development and Labour Council, in the wake of the coronavirus pandemic.A version of the strategy that was discussed by the cabinet this week, and seen by Bloomberg, includes suggestions to secure reliable energy supply through the construction of new nuclear plants.
The draft envisages R23 billion ($1.4 billion) being allocated to galvanize private investment in infrastructure and R4.5 billion being spent on public transport over the next 12 months, but provides scant detail on where the money will come from.
The DFC, which ended its prohibition on supporting nuclear power in July, signed a letter of intent to support NuScale’s bid for South Africa’s independent power producer program, the development bank said in an emailed statement on Friday.
“If successful, NuScale would be the first US nuclear energy IPP on the continent and would help support energy resilience and security in one of Africa’s leading economies,” the DFC said.
USA starts off $3.2 billion subsidy program with $80 million each for “next generation” nuclear reactors
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US DOE awards TerraPower, X-energy $80 million each for advanced nuclear reactors, S and P Global , Joniel Cha William Freebairn , EditorDerek Sands 14 Oct 20, Washington — The US Department of Energy has awarded two companies proposing next-generation nuclear reactors $80 million each in an initial award as part of a $3.2 billion program to build two advanced reactors that can be operational within seven years, Energy Secretary Dan Brouillette said Oct. 13.
One award went to a group including TerraPower, a company co-founded by billionaire Bill Gates, working with a General Electric and Hitachi joint venture, while the other is X-energy, a start-up that is advancing a reactor design originally developed in Germany. The awards are part of DOE’s Advanced Nuclear Reactor Demonstration Program, and future funding is dependent on appropriations, Brouillette said. Regarding advanced reactors, which generally use a different coolant than all operating commercial reactors in the US, “We want to make them more affordable to build, and we want to make them more affordable to operate,” Brouillette said. Brouillette said “it is likely” the advanced reactors will be built in Washington state, where he said a site is available. The key criteria to select applicants included that the reactor design represent a truly advanced technology dissimilar from existing reactors, Brouillette said. A second key factor was DOE’s assessment that the management team of the winning groups be able to supply the required 50-50 match in resources and deliver the projects within seven years, he said. TerraPower partnered with GE Hitachi, engineering and construction company Bechtel, and utilities Energy Northwest, Duke Energy and Pacificorp for its Natrium sodium fast reactor. The system will be supported by a new fuel fabrication facility to supply fuel for the unit, DOE said in a statement Oct. 13. That Natrium reactor and storage system is a 345-MW net reactor system coupled with a molten-salt-based energy storage system that will provide greater operating flexibility for owners, the companies have said. The Natrium system is designed to cost under $1 billion excluding financing costs. …… Congress appropriated $230 million to start a new demonstration program for advanced reactors in the fiscal 2020 budget. DOE said in May it would award $80 million each to two projects that could be operational in the next five to seven years. Additional funding was to be made available to up to five additional projects with anticipated deployment later than the near-term time frame. The other funding awards will be made in December, DOE said in the statement. https://www.spglobal.com/platts/en/market-insights/latest-news/electric-power/101320-us-doe-awards-terrapower-x-energy-80-million-each-for-advanced-nuclear-reactors X-energy is developing an 80-MW high temperature gas-cooled reactor, the Xe-100, which has begun a vendor design review with the Canadian Nuclear Safety Commission. It is working with Canadian engineering company Hatch on potential Canadian projects to deploy the Xe-100. The X-energy proposal includes four Xe-100 reactors and completion of a commercial-scale fuel fabrication facility. |
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.S. govt funds small nuclear reactors, with $billions more tax-payer money to follow
DOE Awards $160M to TerraPower and X-Energy to Build Advanced Nuclear Plants by 2027, Greentech Media, 14 Oct 20 The U.S. Department of Energy has awarded $160 million to X-energy and TerraPower with the potential for billions more in federal funding, as the companies strive to build a working model of their smaller scale, more flexible advanced nuclear reactor designs by 2027. TerraPower is partnered with the GE Hitachi Nuclear Energy, a nuclear industry joint venture formed in 2007.
DOE’s Advanced Reactor Demonstration Program will provide $80 million to each award winner, DOE Secretary Dan Brouillette said Tuesday. DOE intends to invest about $3.2 billion over the next seven years into advanced nuclear, subject to future congressional appropriations, he said………
Smaller reactors are critical to rejuvenate an industry that’s struggling to finance and build the massive, gigawatt-plus power plants that make up the world’s existing nuclear fleet. In the U.S., several of these have been canceled, and Southern Company’s Plant Vogtle expansion is behind schedule and over budget.
Meanwhile, existing reactors in Pennsylvania and Illinois are facing the threat of closure due to challenging energy market economics, and California’s sole remaining nuclear reactor is set to close by mid-decade…………
TerraPower’s initial plans for what it calls a traveling wave reactor drew investment from Gates and Sun Microsystems billionaire Vinod Khosla with its promise of using depleted uranium rather than enriched uranium-235. But that project was abandoned last year after the Trump administration imposed limits on U.S.-China technology transfer forced it to cancel its partnership with China National Nuclear Corp. ……..
X-energy’s advanced pebble-bed reactor…… has yet to be proven in commercial form. A 15 MW demonstration reactor in Germany operated for two decades, but a second, larger-scale version was shut down after only four years of operation. China has built a 10 MW demonstration reactor, and a 250 MW unit began construction in 2012, but plans to start operations in 2019 have been pushed back, with no new completion date announced. ……
Small modular nuclear reactors create intensely radioactive wastes
A bridge to nowhere New Brunswick must reject small modular reactors, Beyond Nuclear International, By Gordon Edwards and Susan O’Donnell, 12 Oct, 20 ”……… In New Brunswick, the proposed new reactors (so-called “small modular nuclear reactors” or SMNRs) will create irradiated fuel even more intensely radioactive per kilogram than waste currently stored at NB Power’s Point Lepreau Nuclear Generating Station. The non-fuel radioactive wastes will remain the responsibility of the government of New Brunswick, likely requiring the siting of a permanent radioactive waste repository somewhere in the province.
Interestingly, promoters of both new nuclear projects in New Brunswick – the ARC-100 reactor and the Moltex “Stable Salt Reactor” – claim their reactors will “burn up” these radioactive waste fuel bundles. They have even suggested that their prototype reactors offer a “solution” to Lepreau’s existing nuclear fuel waste problem. This is untrue. Radioactive left-over used fuel from the new reactors will still require safe storage for hundreds of thousands of years.
……… Until now, every effort to recycle and “burn up” used reactor fuel – in France, the UK, Russia and the US – has resulted in countless incidents of radioactive contamination of the local environment. In addition, none of these projects eliminated the need for permanent storage of the left-over long-lived radioactive byproducts, many of which cannot be “burned up.”…….
The nuclear waste problem is not going away. The recent letter from more than 100 groups across Canada, and the recent cancellation of the proposed nuclear waste dump in Ontario have shown that significant opposition to new nuclear energy generation exists. Because producing nuclear energy always means producing nuclear waste as well……. https://beyondnuclearinternational.org/2020/10/12/a-bridge-to-nowhere/,
Inadequate Emergency Planning Zones for small modular nuclear reactors
No emergency planning zones for SMRs? NRC commissioner warns against “flimsy” rule that could extend to current reactor fleet, Beyond Nuclear International By Jeff Baran, 12 Oct 20, In a 3-1 vote by NRC Commissioners on December 17, 2019, Proposed Rule: Emergency Preparedness for Small Modular Reactors and Other New Technologies (SECY-18-0103) was accepted. The Rule would eliminate the need for Emergency Planning Zones and dedicated offsite emergency planning for Small Modular Reactors. The lone dissenting vote came from NRC Commissioner Jeff Baran. These are his comments.
For the last 40 years, NRC has required emergency planning zones, or EPZs, (Emergency Planning Zones) around nuclear power plants “to assure that prompt and effective actions can be taken to protect the public in the event of an accident.” Every one of the 96* operating large light-water reactors in the country has a plume exposure pathway EPZ that extends about 10 miles around the site with dedicated offsite radiological emergency plans and protective actions in place to avoid or reduce radiation dose to the public during an accident. An ingestion exposure pathway EPZ with a radius of 50 miles around each of these sites is designed to avoid or reduce dose from consuming food and water contaminated by a radiological release.
The EPZs and dedicated radiological emergency plans are meant to provide multiple layers of protection – or defense-in-depth – against potential radiological exposure. Other NRC requirements are focused on preventing or mitigating a radioactive release. The emergency planning regulations are there to provide another layer of defense in case a release occurs despite those safety requirements.
In other words, EPZs and radiological emergency planning are designed to address low-probability, high-consequence events. The Federal Emergency Management Agency (FEMA) assesses the adequacy of the offsite emergency plans, and NRC regulations require licensees to hold offsite emergency preparedness drills at each plant at least once every 2 years to practice implementing the plan .
Under this proposed rule, emergency planning for small modular reactors (SMRs) and non-light-water reactors would be flimsy by comparison. Instead of a 10-mile plume exposure pathway EPZ, these reactors would have EPZs that encompass only areas where the projected dose from “credible” accidents could exceed 1 rem. An EPZ extending only to the site boundary is explicitly permitted under this methodology.
In the case of a site-boundary EPZ, NRC would not require dedicated offsite radiological emergency planning and FEMA would have no role in evaluating the adequacy of a site’s emergency plans. In addition, the proposed rule would eliminate the requirement for an ingestion exposure pathway EPZ and no longer require a specific drill frequency for emergency planning exercises. Overall, this proposed rule represents a radical departure from more than 40 years of radiological emergency planning…………
We need to take FEMA’s warnings seriously. FEMA has a key role in determining whether the emergency planning for a nuclear power plant site is adequate. Under NRC’s regulations, a nuclear power plant license cannot be issued unless NRC makes a finding that the major features of the emergency plan meet the regulatory requirements. And NRC is supposed to base its finding on FEMA’s determinations as to whether the offsite emergency plans are adequate and whether there is reasonable assurance that they can be implemented.
No new SMR or non-light-water reactor designs have yet been approved by NRC, and only one SMR design has been submitted for the staff’s review. These new designs could potentially be safer than current large light-water-reactor designs. But that does not eliminate the need for EPZs and dedicated offsite emergency planning to provide defense-in-depth in case something goes wrong…….
In addition to the issues identified by FEMA, there are several other significant problems with the proposed rule.
First, the logic of the proposed EPZ sizing methodology could be applied to the existing fleet of large light-water reactors to weaken the current level of protection. As the Advisory Committee on Reactor Safeguards noted:
No technical basis is stated in the rule or the guidance for restricting the use of the new rule to SMRs and [other new technologies] with a limit on thermal power. The rule could apply to any reactor technology regardless of size. During our meetings, the staff acknowledged this point.
In fact, the proposed rule explicitly seeks comment on whether to apply this kind of approach to large light-water reactors. This opens the door to smaller EPZs and reduced emergency planning for the existing fleet of power reactors. If the proposed rule’s formulaic approach is adopted, a precedent will be established for applying a purely risk-based methodology to EPZ sizing.
Second, the proposed rule does not account for the possibility of accidents affecting more than one SMR module. Even though some SMR designs contemplate several reactors at one site, the EPZ sizing methodology addresses each reactor in isolation. This ignores a key lesson of the Fukushima accident – that severe natural disasters can simultaneously threaten multiple reactors at a site. Under the draft proposed rule, a SMR is defined as a power reactor that produces less than 1,000 megawatts-thermal. The combined heat energy produced by just two SMRs of this size could be larger than that of some existing large light-water reactors in the U.S. But, under the proposed rule, each module could individually qualify for a site boundary EPZ without consideration of the other.
Third, unlike the existing regulations for large light-water reactors, the proposed rule “would not define the required frequency of drills and exercises” for emergency preparedness. As a result, SMR and non-light-water reactor licensees would not be required to conduct a full offsite emergency preparedness drill every 2 years. The NRC staff provides no basis for this weaker standard.
Finally, the proposed rule would eliminate the ingestion pathway EPZ for SMRs and non- light-water reactors . . . No FEMA evaluation of this change is provided. Nor is there any discussion of the effectiveness of ad hoc responses to previous radiological releases. Moreover, if the staff’s unbounded rationale were adopted, it could ultimately lead to ingestion pathway EPZs being dropped for the existing fleet of large light-water reactors.
For these reasons, I do not support finalizing the proposed rule in its current form. NRC needs a rule that provides regulatory certainty for potential applicants and recognizes that SMRs and non-light-water reactors will be different than traditional, large light-water reactors. It makes sense to have a graded approach that accounts for potential safety improvements in new designs. But the rule should not be purely risk-based, relying entirely on the results of a dose formula. Instead, NRC should issue a rule to establish the following emergency planning requirements for three categories of nuclear power plants………….https://beyondnuclearinternational.org/2020/10/12/no-emergency-planning-zones-for-smrs/
Big doubts about the economics of small nuclear reactors for the UK
FT 11th Oct 2020, The big challenge facing small nuclear reactors. When Britain unveiled its
first commercial nuclear reactor back in 1956, Calder Hall in Cumbria had
the ability to generate 50 megawatts of electricity. Fast-forward four
decades to the last reactor the UK completed, at Sizewell in Suffolk. Still
functioning, it has a capacity of 1,200MW. Spot the theme? Yup, ever bigger
reactors.
Size has steadily increased because of simple nuclear economics.
Sizewell B may be able to generate 24 times as much power as a 50MW
reactor. But it doesn’t need 24 times the material inputs and staffing to
generate that extra power. Which all makes it seem faintly
counter-intuitive that Britain is considering downsizing and spending money
on a fleet of so-called small modular reactors.
The government is considering plans to put up to £2bn into developing the technology. A
number of companies, including Britain’s Rolls-Royce and GE Hitachi, are
pitching to sell their products. The aim is to fund prototypes with a view
to kick-starting a new SMR industry.
This would build perhaps dozens of
mini-reactors to [supposedly] help the UK meet its net zero emissions target while also
keeping the lights on, as well as exporting this technically advanced kit.
Large nuclear hasn’t exactly a spotless record when it comes to cost
containment. So why make it harder by forgoing those scale advantages?
Research by a team led by Tony Roulstone at Cambridge university looked at
the relative costs of building a “first of a series” SMR against a
comparable large reactor. It concluded that if you used the same project
techniques as for conventional plants, the SMR would cost (once the
interest costs incurred in construction were taken into account) roughly 70
per cent more per kilowatt (kW) to build than the larger one.
Squeezing that cost back down requires a wholly different approach to construction.
Instead of building everything in the open on a massive building site, as
with large reactors, it means making as much as possible in factories
before shipment to site. The same Cambridge team estimated that with ever
more prefabrication and standardisation of parts, you could ultimately
squeeze the cost down roughly to parity with the larger reactor.
A glance at the history of overruns and delays that plagued the Advanced Gas-cooled
Reactor project in the 1960s should suffice as a reminder. For SMRs to
avoid a similar miserable fate, the government must pick a single
commercial technology which can bring in sufficient private sector
investment and attract export orders. This cannot be some “made in
Britain” industrial exercise. If that’s what’s in prospect, then,
honestly, big is probably best.
https://www.ft.com/content/99307126-bb21-48e3-87aa-301749dec870
3 Canadian provinces sucked in by propaganda from 3 Small Nuclear Reactor companies
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The two big-name companies that won’t be designing Ontario’s next nuclear reactor The province has passed over two major players on its shortlist for a small-modular-reactor design. Will that mean a more competitive process? TVO By John Michael McGrath – Oct 09, 2020 The Ontario government — along with the governments of New Brunswick, Saskatchewan, and (probably) Alberta — wants to develop a new generation of nuclear reactors in Canada. This week, the provincially owned Ontario Power Generation announced it was taking the latest step toward that goal and would be working with three different companies to refine their engineering and design work so that eventually one can be selected for completion.
The three lucky companies are Terrestrial Energy (covered previously on TVO.org), GE Hitachi (with generations of nuclear experience in the United States), and X-energy. At least as notable, however, are two major omissions: NuScale and SNC-Lavalin, which makes the CANDU reactors that Ontario has relied on for decades……….. The problem for NuScale is that its design is meant to be packaged in clusters of up to 12, which is fine if you need 12 — but, right now, Ontario is looking to find one reactor that it could build reasonably quickly, to prove the design works and can be built economically, and then to reproduce it in other provinces, such as Saskatchewan……… In June of this year, however, SNC-Lavalin announced it was submitting a reactor design to the Canadian regulator in the 300-megawatt range — putting it on the larger end of the spectrum for something that’s still supposed to be “small” but is still smaller than traditional CANDU designs. Terrestrial Energy, by comparison, is offering a 195-megawatt design. Canada’s nuclear industry tried to market a 300-megawatt CANDU reactor in the 1980s (the CANDU 3) but never found a buyer. ……… handing the prize to SNC-Lavalin out of nostalgia for the CANDU design would have been a poor guarantee of value for electricity customers. https://www.tvo.org/article/the-two-big-name-companies-that-wont-be-designing-ontarios-next-nuclear-reactor |
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Design not even finished! But UK govt to subsidise Small Nuclear Reactors (SMRs)
The plan is for 16 of them – at ? £2bn each?
FT 7th Oct 2020, Downing St considers £2bn support for mini nuclear reactors
Consortium wants to build up to 16 generators . Downing Street is supporting plans to spend up to £2bn of taxpayers’ money on a
new generation of mini nuclear reactors. Consortium wants to build up to 16 generators to help UK meet carbon emissions targets. The first SMR is expected to cost £2.2bn and be online by 2029.
Government and industry figures confirmed that a pledge of £1.5bn-£2bn is being discussed which could even see taxpayers acquire an equity stake in the programme.
However, discussions are still ongoing and any final decision will be subject to the Treasury’s current multiyear spending review, which is due later this year. The government could also commission the first mini power station, giving confidence to suppliers and investors. The consortium, which also includes the National Nuclear Laboratory, will seek additional funding of at least £2bn, including from private investors and the capital markets.
Support for SMR technology is expected to form part of Boris Johnson’s “10-point plan for a green industrial revolution” which he will set out later in the autumn. …….. Under the plans being considered by Number 10, the small
modular reactors would be manufactured on production lines in central plants and then transported to sites for assembly. Each mini power station would operate for up to 60 years, providing 440MW of electricity per year — enough to power a city the size of Leeds.
The government’s support “should deliver sufficient cash to get the consortium through building
factories and well on the way to construction of power stations prior to finding more money from other sources,” said one person with knowledge of the situation.
The consortium is expected to finalise the SMR design by April next year, when it hopes to launch the four-year licensing process.
During that time it hopes to begin recruiting employees for the business, and identifying the sites for powers stations and the factories to build the components and modules for the SMRs. The business department hasalready pledged £18m towards the consortium’s early-stage plans.
https://www.ft.com/content/d7016b80-e0c4-4444-a059-2daf32b9a4ab
One more Utah city withdraws from NuScam small nuclear reactor project
Kaysville withdraws from nuclear power project. Post Register, By NATHAN BROWN nbrown@postregister.com
- Sep 28, 2020 One more Utah city has withdrawn from a project to build 12 small nuclear reactors west of Idaho Falls.
The Kaysville City Council voted unanimously a week-and-a-half ago to withdraw from the Carbon Free Power Project, although the resolution left the door open for the city to hold a special meeting to rejoin the project if anything changes……….
Lehi and Logan have also withdrawn from the Carbon Free Power Project over the past month-and-a-half, citing potential risks to local taxpayers if costs go up. There are still more than 30 cities and power systems, including Idaho Falls, that are part of it, and the members have until Oct. 31 to recommit to the project’s next phase by approving the new budget. Utah Associated Municipal Power Systems is waiting for the U.S. Department of Energy to give final approval to a promised $1.4 billion to support the project. ……. https://www.postregister.com/news/government/kaysville-withdraws-from-nuclear-power-project/article_fbb6f15e-e8c6-5207-b6e9-bbf632538c85.html
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