At last! – some media questioning the story that small nuclear reactors combat climate change
What’s the Role for New Nuclear Power in the Fight Against Climate Change?Some fear that small modular reactors could rob cash from more proven low-carbon technologies. Greentech Media, JASON DEIGN MARCH 08, 2021 Small modular reactors (SMRs) — nuclear reactors using novel technologies to fit into much smaller and mass-producible packages than the behemoth nuclear power plants of today — are presented as a way of rapidly decarbonizing the grid in the face of an ever more pressing need to meet climate targets. But some opponents claim new nuclear power could have the opposite effect, slowing the fight against human-caused climate change just when things should be speeding up.In September last year, for example, the Sierra Club Canada Foundation harshly criticized Canada’s plans to foster an SMR industry.SMRs “are not the solution to climate change,” said the organization, citing a University of British Columbia study indicating that energy produced by SMRs could cost up to 10 times as much as power from renewable sources such as wind and solar.
“Critics of SMRs say that developing experimental nuclear reactor technologies will take too long to make a difference on climate change and could drain billions of dollars from public coffers,” said the advocacy group.
Similar challenges have been leveled against U.S. utilities such as Duke Energy and Southern Company that include SMRs in the longer-range suite of options to fully decarbonize their power grids by 2050. Critics question whether the SMRs under development today can be commercialized fast enough to drive down emissions over the next decade or two and whether government funding to drive faster deployment might better be spent on other technologies.
That’s not the only criticism facing new nuclear. In 2014, NuScale Power, which looks likely to become the first Western SMR developer to commercialize a reactor, published a paper on the use of its SMRs for oil recovery and refining applications.
The aim of the paper was to show that SMRs could be instrumental in “reducing the overall carbon footprint of these industrial complexes and preserving valuable fossil resources as feedstock for higher-value products,” according to the authors.
Nevertheless, it doesn’t look good for the nuclear industry’s climate-fighting credentials when one of its upcoming stars is apparently touting wares to the oil and gas sector.
In a written statement, Diane Hughes, NuScale Power’s vice president of marketing and communications, told GTM that the SMR developer “does not comment or discuss what companies we may be talking to regarding potential business opportunities.”……
Doubts over government finance for SMRs
Despite this, the question remains whether it makes sense for governments to put money into SMR research and development when other low-carbon generation technologies can be used to combat climate change right away.
Nuclear skeptics such as David Toke, who researches energy politics at the University of Aberdeen in the U.K., don’t think so. SMRs “are a diversion from the development of energy systems that best mitigate climate change,” he said in an interview.
“Small reactors already exist, and they occupy a very niche zone, which is military marine, mainly. That allows very high costs. But that’s the point: They cost an awful lot of money. Just because something reduces carbon emissions doesn’t mean to say the state ought to encourage it.” ….https://www.greentechmedia.com/articles/read/whats-the-role-for-new-nuclear-power-in-the-climate-change-fight
Despite the problems, small nuclear reactor salesmen aggressively marketing: it’s make or break time for the nuclear industry.
Entrepreneurs Look to Small-Scale Nuclear Reactors, The American Society of Mechanical Engineers, Mar 2, 2021, by Michael Abrams ‘‘……… even concepts that are predicated on being small, modular, and fast to build seem locked into decades-long development cycles.
The key to reviving the nuclear power industry is building these small reactors not as projects, but as factory-made products. That’s easier said than done. “Usually, a bunch of nuclear engineers go in a room and then they come out after a year or two, and they have a design that doesn’t have a lot of foundation in realty, and nobody can make it, and the projects dies,” said Kurt Terrani, a senior staff scientist at Oak Ridge National Laboratory………..
In terms of reactor physics, the NuScale concept is fairly bog standard: low-enriched uranium, light-water cooling. In essence, their reactor is just a smaller version of the nuclear plants already in operation. That NuScale didn’t go with a more revolutionary design to mitigate waste or utilize an alternative fuel cycle is no accident. To do so would require the Nuclear Regulatory Commission to come up with an entirely new licensing framework, said José Reyes, cofounder and chief technology officer at NuScale.
“Pressurized water-cooled reactors have benefited from billions of dollars of research and development and millions of hours of operating experience over the past 50 year,” Reyes said. “NuScale went with a more traditional approach to assure a design that is cost-competitive and capable of near-term deployment.”
So far, the concept and design have been convincing enough to win funding from the DoE and to move NuScale farther along in the regulatory process than any of its would-be competitors.
“The whole idea of SMRs is that smaller is better,” said Jacopo Buongiorno, a professor of nuclear science and engineering at MIT and the director of the Center for Advanced Nuclear Energy Systems. “But within the class of small reactors, larger is still better. If you can design a reactor that is still simple, that is still passively safe, that can still be built in a factory, but that generates 300 megawatts, that for sure is going to be more economically attractive than the same thing that generates 60 megawatts.”
Make or Break for Nuclear
Moltex is aiming for build costs at around $2,000 per kW—more than wind or solar, but less than newly built coal or gas plants, let alone competing nuclear concepts. “We’ve believe we’ve come up with a concept that can radically reduce the cost of nuclear power,” ……
Montana legislatures to review the law restricting nuclear developments
At the same time the House was reviewing a bill sponsored by Rep. Derek Skees, R-Kalispell, to remove restrictions on nuclear development, the Senate was at work on Senate Joint Resolution 3, which directs the state to study advanced nuclear reactors. The resolution appears well-positioned to pass — halfway through the session, SJ 3 has garnered unanimous support in the Senate.
Sponsor Terry Gauthier, R-Helena, becomes audibly excited discussing the measure. He said he sees modern nuclear technology as a way for Montana to send electrons to the energy-thirsty markets of the Pacific Northwest by tying into the high-voltage transmission lines leading out of Colstrip……..
Gauthier is particularly interested in a company called NuScale, based in Portland, Ore., that’s garnered more than $1.3 billion from the federal government to advance its small modular reactor, or SMR, design. It’s the only company that’s received approval from the federal Nuclear Regulatory Commission for that type of design — a significant milestone on the journey to market……….
Much of the debate about the environmental impact associated with nuclear energy is focused on what to do with the spent fuel. Some kinds of nuclear fuel can remain radioactive for hundreds or thousands of years. The U.S. has yet to arrive at a long-term solution for re-using or storing spent fuel, creating a contentious political issue that’s spanned decades.
As is the case with larger-scale traditional nuclear plants, spent fuel from SMRs remains a “significant issue,” according to Darby.
NuScale’s plan is to store used fuel underwater in a stainless-steel lined concrete pool located onsite for at least five years. They say the pool is designed to withstand “a variety of severe natural and human made phenomena” like earthquakes and aircraft impacts. After the five-year period when the used fuel is both hottest and most radioactive has elapsed, it’s moved to a stainless-steel canister surrounded with concrete that’s designed to contain the radioactivity.
The United States doesn’t have a permanent underground repository for high-level nuclear waste, so those concrete containment vessels generally remain on-site or near the plant they came from. A 33-year-old effort to create such a long-term storage repository northwest of Las Vegas is still subject to heated debate. ……….
Another question hanging over nuclear energy development is the price of building a new plant. It’s not uncommon for new construction costs to exceed $1 billion. Concerns about cost increases led several cities that had committed to participate in NuScale’s demonstration plant in Idaho Falls to pull out of the multi-billion-dollar project last year.
NuScale told Montana Free Press that once production is rolling on their product, it anticipates the facility construction cost to be about $2,850 per kilowatt of producing capacity for its largest, 12-module iteration. For comparison, new construction of a natural gas plant averaged about $837 per kilowatt of capacity in 2018, and wind plants clocked in at $1,382, according to the U.S. Energy Information Administration.
Brad Molnar, a Republican senator from Laurel, told MTFP that cost will be an important consideration as the state plots its energy future. He said the study Gauthier is spearheading should involve the Public Service Commission, because it doesn’t make sense to conduct the study without landing on a cost-per-megawatt estimate.
Gauthier knows that nuclear is by no means the least expensive energy source, particularly if calculations are based on a strict dollars-and-cents equation…….
It’s not yet clear if Montana’s 1978 law requiring voter approval before a nuclear energy plant can be built in the state will still be on the books next year. The Legislature is still deciding the fate of HB 273, which would strike that law and remove nuclear projects from the purview of the Major Facility Siting Act.
Sen. Molnar has been asked if he’d carry HB 273 when it’s heard in the Senate, but he said he has reservations about the measure.
“By and large, I’m really hesitant to overturn a [voter] initiative,” he said, adding that the order of operations seems a little off to him.
“First you do the study, then you take action,” he said. “You don’t take action and then do the study.”
As of March 4, both HB 273 and SJ 3 have been transmitted to the Senate and House, respectively, for review. Hearing dates before those chambers’ energy committees have not been set. https://montanafreepress.org/2021/03/04/nuclear-on-the-radar-part-ii/
Is it wise for the Biden administration to fund Small Nuclear Reactors?
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Climate change and ‘advanced nuclear’ solutions, The Hill, BY GREGORY JACZKO, — 02/23/21
Nuclear power is knocking on the government’s door offering solutions. The Biden platform answered by including so-called “advanced nuclear” in its list of climate options. The question now is will they wisely fund any such efforts?
While talk of advanced nuclear reactors is ubiquitous, a precise definition is elusive. Without a clear target in which to aim, government funds will not hit the mark. Advanced nuclear has become the catch-all for the knight-in-shining-armor reactors that promise to address issues that have kept nuclear a marginal electricity player since its inception. But we need more than this open-ended definition. The Biden administration should support projects only if they can compete with renewables and storage on deployment cost and speed, public safety, waste disposal, operational flexibility and global security. There are none today.
The only advanced nuclear technologies close to realization are called small modular reactors. These reactors are smaller than traditional reactors and are self-contained. These features allow companies to manufacture most of the reactor in a factory and ship it to a plant site. This concept evokes images of smart phones rolling out of factories by the billions — each design identical and mass produced. Their small size reduces the amount of radiation that can be released to the environment, greatly reducing — but not eliminating — safety to a plant’s community….
Yet the economic competitiveness of small modular reactors appears weak. Shrinking the size of a traditional reactor and splitting it among many modules increases the cost of the electricity it produces. It is the same reason airlines fly large capacity jets instead of private jets. You maximize the revenue per area of the aircraft hull. Proponents argue mass production will overcome this problem with fleet-wide economies of scale and construction efficiencies. Only wide scale adoption of the technology would deliver those benefits and there is no obvious market to support that today.
Moreover, the nuclear industry always promises better, faster and cheaper yet it fails to deliver. ……
Small modular designs are only promising to be cheaper than traditional reactors. Current estimates show they are more expensive than renewables, like wind and solar, even with storage and without subsidies. Small reactors have a long way to go to be competitive. Dramatic cost decreases for high-volume energy storage, which address the intermittency of some renewables, make the competitive case for any form of nuclear even tougher.
Even if everything else was lined up perfectly, nuclear has little time to catch up. After reentering the Paris Agreement, the U.S. will again strive to achieve drastic reductions in greenhouse gas emissions (GHG) within the next 10 years. Even in the most optimistic scenario, we won’t see even a handful of small modular nuclear reactors in the U.S. until 2029 or 2030, which means a large-scale impact would come far after the climate tipping point.
What about the other factors like proliferation resistance and waste disposal? For those criteria, small modular reactors offer no advantages over their traditional reactor cousins. Even if the cost factors are addressed, proliferation concerns and waste management will be hurdles.
Most importantly, no small modular reactors have been deployed yet in the United States, despite government efforts. In 2011, the Department of Energy (DOE) offered $400 million grants to support two small modular reactor designs. After providing tens of millions, only one design is still under development. That company originally planned to build a 12-module plant at the Idaho National Laboratory.
Predictably, this project is in trouble. Electricity customers have committed to purchase just a small fraction of the power produced annually by that plant, which now is likely to be scaled down, diminishing the economies of scale from mass production. It will not operate until at least 2030, years behind schedule and too late to help deal with the problem forecast in the best climate models. Despite these challenges, the federal government agreed in concept to a $1.4 billion direct subsidy over 10 years for the project. Without this cash infusion, the project will not meet its already disputed targets for price competitiveness. Such largesse is part of the billions Congress and the Trump administration committed to other advanced reactor concepts, none of which are close to deployment. To avoid wasting money on advanced nuclear reactors, the Biden administration must establish clear metrics for advanced nuclear reactors and apply them rigorously. Only ideas that can meet the pressing timetable of climate demands and electricity market realities deserve a serious look. My list is a good place to start. If advanced reactors cannot meet these metrics, they should not receive funding. Proponents of nuclear power will certainly say that living up to my list is an arduous task. Perhaps it is, but the future of our planet hangs in the balance. That is more important than the profits of an industry. Dr. Gregory Jaczko was the chairman of the U.S. Nuclear Regulatory Commission from 2009 to 2012 and currently develops clean energy projects and teaches at Princeton University. https://thehill.com/opinion/energy-environment/539991-climate-change-and-advanced-nuclear-solutions |
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NuScale’s small nuclear reactor dream – dead on arrival?
in order to make advanced reactors accessible within the next few decades—even relatively simple reactors, like NuScale’s—the government would need to provide hundreds of billions of dollars in subsidies …… the nuclear dream looks dead on arrival….
Biden’s Other Nuclear Option, Smaller nuclear reactors might be the bridge to a carbon-free economy. But are they worth it? Mother Jones, 22 Feb 21, BOYCE UPHOLT ”………..
But are these investments worth the money—and the risks? New designs or not, nuclear plants face daunting issues of waste disposal, public opposition, and, most of all, staggering costs. We must ramp up our fight against climate change. But whether nuclear is a real part of the solution—or just a long-shot bid to keep a troubled industry alive—is a debate that will come to the fore in the short window we have to overhaul the nation’s energy portfolio.
Few issues divide us as cleanly as nuclear power. According to a 2019 Pew Research Center poll, 49 percent of Americans support opening new plants, while 49 percent are opposed.
The popular argument against nuclear power can be summed up in a few names: Chernobyl. Fukushima. Three Mile Island. Nuclear dread is palpable. Some formerly pro-nuclear countries, like Germany, began phasing out plants in the wake of the 2011 disaster in Japan. The dangers begin well before nuclear fuel arrives at a plant, and persist long afterward; the rods that fuel today’s plants remain radioactive for millennia after their use. How to ethically store this waste remains a Gordian knot nobody has figured out how to cut.
The argument in favor of nuclear power boils down to the urgent need to combat climate change. [Ed, but nuclear does not really combat climate change.]
But if nuclear power is going to help us mitigate climate change, a lot more reactors need to come online, and soon. Eleven nuclear reactors in the United States have been retired since 2012, and eight more will be closed by 2025. (When nuclear plants are retired, utility companies tend to ramp up production at coal- or natural gas–fired plants, a step in the wrong direction for those concerned about lowering emissions.) Since 1970, the construction of the average US plant has wound up costing nearly three-and-a-half times more than the initial projections. Developers have broken ground on just four new reactor sites since Three Mile Island. Two were abandoned after $9 billion was.. sunk into construction; two others, in Georgia, are five years behind schedule. The public is focused on risks, but “nuclear power is not doing well around the world right now for one reason—economics,” says Allison Macfarlane, a former commissioner of the Nuclear Regulatory Commission.
Until Three Mile Island, public support was strong. Dozens of plants came online. In the 1970s, Reyes, seeing an industry full of promise, decided to pursue a degree in nuclear engineering.
……… Utah Associated Municipal Power Systems, a state-owned agency that sells electricity across six Western states aims to offer its members the choice of fully carbon-free power, sees NuScale as the best available option for undergirding its existing wind and solar plants. In 2015, UAMPS announced a plan to build 12 NuScale reactors at the federally run Idaho National Laboratory. NuScale projected total construction costs at $3 billion—nearly a third less than the most recently completed US reactor, which came online in 2016 at a cost of $4.7 billion (though it will supply more power). And the next plant should cost even less, since NuScale’s small reactors will be built on an assembly line, rather than on-site. But the price will drop only if more customers buy them. “Taxes are more popular than nuclear power,” jokes Doug Hunter, the CEO of UAMPS.
To change that perception, Hunter and his team have spent the last few years visiting towns and utility companies that buy power from UAMPS, explaining the potential role of nuclear power and the safety of NuScale’s design. His persistence paid off. By 2020, the majority had signed on to the NuScale project—though only as long as they had plenty of chances to back out if the project went south……….
Even with new technology, we will need to mine uranium—a process that has leached radioactive waste into waterways—and find somewhere to put the spent fuel. (The current practice, which persists at Trojan and will be employed at NuScale’s plants, is to hold waste on-site. This is intended to be a temporary measure, but every attempt to find a permanent disposal site has been stalled by geological constraints and local opposition.) Lloyd Marbet, Director of the non-profit Oregon Conservancy Foundation believes we need to transition away from coal and gas immediately. But he worries that nuclear is too expensive, and a new round of investment might pull money away from more effective, and cleaner, solutions. ……….
These days, he’s watching the industry creep back. A Republican state senator named Brian Boquist has proposed a bill three times that would permit city or county voters to exempt themselves from the 1980 law, allowing a nuclear facility to be built within their borders. (The bill has failed twice; the latest version is with the senate committee.) Boquist does not seem particularly committed to fighting climate change: He and other members of the Republican minority refused to show up to vote on a cap-and-trade bill in early 2020, causing the Senate to fall short of a quorum. (When Gov. Kate Brown threatened to retrieve legislators using state troopers, Boquist said to “send bachelors and come heavily armed.”)
In 2017, as the legislature debated Boquist’s first pro-nuclear bill, Marbet testified that NuScale was making “an end run around [voters] in their quest for corporate profit.” He also noted the company’s ties to the Fluor Corporation. The Texas-based multinational engineering firm that has been NuScale’s majority owner since 2011 has invested $9.9 million in campaign contributions over the past 30 years, with nearly two-thirds going toward Republican candidates. (Fluor is currently under investigation by the Securities and Exchange Commission due to allegedly sloppy accounting practices.)
Marbet admits his view of the industry is jaundiced, but his experiences make him skeptical of NuScale and its claims. He worries, too, that if small reactors take off, operators will revert to old habits, cutting corners to make a buck. He points to a draft rule approved last year by the Nuclear Regulatory Commission, over the objections of FEMA, that would reduce the size of the emergency planning zone around nuclear plants: Rather than a 10-mile-wide circle, a plant would only need an evacuation plan for the space within its fence lines. NRC commissioner Jeff Baran opposed the change, noting it is based on assumptions about small reactors, like NuScale’s, that remain on the drawing board, and might open the door to weakening safety standards for existing plants.
Old-line environmental groups like Greenpeace and the Sierra Club remain staunchly opposed to nuclear power, but politicians have been more open to it.
President Barack Obama was an outspoken proponent of nuclear’s potential. For 2020, the Senate Appropriations Committee unanimously agreed to spend more than President Trump requested on nuclear research, and the Senate is currently considering a bipartisan bill that will streamline the permitting process and establish a national uranium reserve.
Now, as part of his $2 trillion climate plan, Biden is calling for a federal research agency that would pursue carbon-free energy sources, including small reactors. Biden’s was the first Democratic Party platform in 48 years that explicitly supported an expansion of nuclear energy. His pick to lead the Department of Energy—which devotes the majority of its budget to nuclear projects—is former Michigan Gov. Jennifer Granholm, who has little experience in the field. Gina McCarthy, the former EPA administrator who is Biden’s chief domestic climate coordinator, has said that nuclear could play a key role in baseload power supply but indicated that waste disposal issues ought to be resolved before the technology is widely adopted.
A major hurdle for any advanced nuclear product is the regulatory process. NuScale spent more than $500 million developing its licensing application. The path to approval has consumed 12 years already, and it’s not over yet. In the months after my visit to NuScale, the Nuclear Regulatory Commission noted “several potentially risk-significant” questions that remain unanswered about the company’s reactor design, especially about its new version of a steam generator. Nonetheless, the NRC granted its initial approval of the design at the end of the summer; now NuScale awaits official, final certification by the commissioners, which is expected sometime this year. But further analysis of the generators will be required before a license is granted to actually build a plant.
A decade ago, NuScale suggested it might have a plant in operation by 2018. Now construction won’t begin until 2025 at the earliest. The plant at Idaho National Laboratory won’t be fully operational until 2030. Factoring in interest and other costs not included in NuScale’s $3 billion estimate, UAMPS expects a total 40-year lifetime cost of $6 billion for the plant. Some critics see this as the same old story: grand, early promises—a “dog and pony show,” as Marbet calls NuScale’s PR—followed by cost overruns and delays. Reyes intentionally used materials familiar to regulators, so as to speed along the process. But other advanced reactor designs, which use new kinds of fuel and coolant, may face an even slower and more expensive journey.
Recently, nine towns—more than a quarter of the subscribed members—pulled out of UAMPS’s project after changing their minds about their energy needs or worrying that it was becoming a financial sinkhole. (Meanwhile, one new town signed on.) The plant’s economics depend on running near full capacity, which will only happen if utilities outside of UAMPS also buy some of its power. The Department of Energy says it will chip in nearly $1.4 billion over the next nine years, which should help bring down the cost of the plant’s energy. But the projected price—$55 per megawatt-hour—is still above the current costs for solar and wind projects. And the federal money will require annual congressional approval. It’s possible that other new ideas might pop up, competing for limited dollars.
Biden’s climate plan hinges on a massive expenditure on research. What his administration will have to quickly decide, though, is how to divvy that pot. Allison Macfarlane, the former NRC commissioner, told me other industries deserve far more of our resources and attention than nuclear. Batteries, in particular, could steady out the uneven flow of renewables. They may even work better, since nuclear plants are difficult to power up or down in response to changing conditions. Once a pie-in-the-sky idea, battery storage now offers costs at least “in the ballpark” of nuclear, says Stan Kaplan, a former US Energy Information Administration analyst. Prices have dropped 70 percent in the past few years and are projected to drop another 45 percent before NuScale’s plant comes online. California—which also has a moratorium on nuclear builds—is rapidly expanding its storage capacity. Within 10 years, the niche that NuScale is aiming for might already be filled.
……. For nuclear to persist as a hedge, it all but requires government assistance, given the enormous upfront costs of R&D. Another challenge is vetting which projects have real promise. “You have all these reactor vendors pitching their wares, and making all sorts of outrageous and false claims,” says Edwin Lyman, the director of nuclear power safety with the Union of Concerned Scientists. These claims have also been the basis of lowering safety standards, which offers a large indirect subsidy for operators. There needs to be a stronger peer-review process, he says, to make sure the government is only sponsoring truly worthwhile projects.
A recent study from Princeton found that even without nuclear power, the relative cost of a decarbonized energy system in 2050 could be about the same as in 2015, which at the time was a historic low. The study found nuclear could reduce costs even further—if it becomes as cheap as its advocates hope. But Abdulla, the UC San Diego researcher, has calculated that in order to make advanced reactors accessible within the next few decades—even relatively simple reactors, like NuScale’s—the government would need to provide hundreds of billions of dollars in subsidies and substantially simplify the regulatory process. Abdulla believes nuclear energy should have been “an arrow in our quiver.” But given the economics, he says, “I fear the arrow has broken.”
if money were no object—if we could snap our fingers and scatter reactors across the landscape—…… But if Abdulla’s numbers are right, the nuclear dream looks dead on arrival…. https://www.motherjones.com/environment/2021/02/nuclear-energy-climate-change-nuscale-green-power-uranium/
A great article. Just one problem. The whole article runs with the assumption that nuclear power is effectively ”low carbon”. Yet this assumption is not challenged. There are several ways in which nuclear power is actually quite high carbon. Just for one comparison with reneewable energy: wind and solar power are delivered directlly to the turbines and panels – with no digging up of fuel required, no regular transport by road, rail etc. The entire nuclear fuel chain with all its steps – mining, milling, conversion, fuel fabrication, reactor, waste ponds, waste canisters , deep repositaory … all this is carbon emitting.
Big trouble ahead, on regulation issues, for countries desperately trying to export small nuclear reactors
Regulatory Harmonization: An Upcoming Hurdle for SMRs?Nuclear developers may have problems selling small modular reactors abroad. GreenTech Media JASON DEIGN FEBRUARY 15, 2021 The nuclear industry is betting on small modular reactors (SMRs) to regain its competitive edge in markets such as the U.S. and Canada. Proponents say the reactors can be built cheaply once multiple units start being ordered and can even lead to lucrative export opportunities.There’s just one problem. If you build an SMR in the U.S., for example, you can’t sell it in Canada until Canadian regulators have approved the design. And the same goes for every other nuclear market in the world. Even nuclear insiders recognize that this could be a big issue for SMRs.
Regulatory harmonization has a lot to do with whether or not SMRs are going to be able to achieve cost competitiveness,” stated John Gorman, president and CEO of the Canadian Nuclear Association, in an interview.
… national regulations cover everything from food safety to vehicle emissions.
But the hyper-safety-conscious nuclear industry takes regulation to a whole new level. The SMR manufacturer NuScale, for example, claims to have spent more than $500 million, plus 2 million labor hours, in the process of passing its U.S. Nuclear Regulatory Commission Design Certification Application…….
National regulations are not just highly detailed but also wildly divergent. The differences between the regulatory regimes in the U.S. and the U.K., for example, reflect not just different jurisdictions but entirely different safety philosophies.
……… even a regulatory approval from the Canadian Nuclear Safety Commission won’t pass muster in the U.S.,,,,, https://www.greentechmedia.com/articles/read/regulatory-harmonization-an-upcoming-hurdle-for-smrs
Even a pro nuclear enthusiast admits that Small Nuclear Reactors cause toxic radioactive wastes
13 Feb 21 I was quite fascinated to note a paragraph in a long nuclear propaganda article, (by Stikeman Elliott, in Mondaq) yesterday, in which this, hitherto rather hidden problem, gets a mention.
Of course, this pro nuclear writer is not really worried all that much about the actual problem.
Oh no – his concern is about the public’s perception of it – that public perception might hamper the develoment of the nuclear lobby’s newest gimmick. Can’t have that!
”…….efforts need to be made to address the perceived risks so as to establish confidence in the ability of SMRs to operate safely while proving to be a viable source of low-carbon energy.
While SMRs produce less nuclear waste than traditional reactors, the issue of radioactive waste still exists. Nuclear waste needs to be safely stored and transported to secure facilities. SMRs have often been proposed as a solution for electricity generation in remote areas, but this proves problematic from a waste perspective as any nuclear waste would need to be transported over long distances. There is currently no permanent nuclear waste storage site in Canada……”
Unsafe plan for abandoning nuclear reactors onsite, and developing Small Nuclear Reactors
“IAEA guidance that entombment is not considered an acceptable strategy for planned decommissioning of existing [nuclear power plants] and future nuclear facilities.”
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Groups oppose plans to abandon defunct nuclear reactors and radioactive waste, https://rabble.ca/columnists/2021/02/groups-oppose-plans-abandon-defunct-nuclear-reactors-and-radioactive-wasteThe Canadian Nuclear Safety Commission (CNSC) has just given a green light to the preferred industry solution for disposal of nuclear reactors — entomb and abandon them in place, also known as “in-situ decommissioning.” This paves the way for the introduction of a new generation of “small modular” nuclear reactors or SMRs. Over 100 Indigenous and civil society groups have signed a public statement opposing SMR funding, noting that the federal government currently has no detailed policy or strategy for what to do with radioactive waste. Many of these groups are also participating in a federal radioactive waste policy review launched in November 2020. The Assembly of First Nations passed resolution 62/2018 demanding that the nuclear industry abandon plans for SMRs and that the federal government cease funding them. It calls for free, prior and informed consent “to ensure that no storage or disposal of hazardous materials shall take place in First Nations lands and territories.”
An SMR emits no radiation before start-up (other than from uranium fuel) and could easily be transported at that stage. But during reactor operation, metal and concrete components absorb neutrons from the splitting of uranium atoms — and in the process, transform into radioactive waste. Removing an SMR after shut-down would be difficult and costly, and comes with the need to shield workers and the public from its radioactivity. Abandoning nuclear reactors on site has been in the works for some time. CNSC helped draft a 2014 nuclear industry standard with in-situ decommissioning as an option and then included it in a July 2019 draft regulatory document. However, when the International Atomic Energy Agency (IAEA) released a peer-reviewed report on Canada’s nuclear safety framework last February, it said in-situ decommissioning is “not consistent” with IAEA safety standards. The IAEA suggested that CNSC “consider revising its current and planned requirements in the area of decommissioning to align with the IAEA guidance that entombment is not considered an acceptable strategy for planned decommissioning of existing [nuclear power plants] and future nuclear facilities.” It also noted that CNSC is reviewing license applications for in-situ decommissioning of shut-down federal reactors in Ontario and Manitoba, and encouraged Canada “to request an international peer review of the proposed strategy” for legacy reactors. But CNSC continued to pursue this strategy. Clever language in a June 2020 document appeared to rule out on-site reactor disposal, but left the door open where removal is not “practicable”:
At public meeting last June, CNSC Commissioner Sandor Demeter asked: “why are future facilities in this sentence when in fact we should be designing them so that in-situ decommissioning is not the option?” Former CNSC staff member Karine Glenn replied that “leaving some small parts of a structure behind…especially if you are in a very, very remote area, may be something that could be considered.” Glenn is now with the industry-run Nuclear Waste Management Organization, tasked with leading the development of a radioactive waste management strategy for Canada. Commissioners decided to approve the regulatory document, but with added text to clarify where in-situ decommissioning would be acceptable. They asked for additional text on “legacy sites” and “research reactors,” stating that “[t]he Commission need not see this added text if it aligns with the oral submissions staff made in the public meeting.” But no new clarifying text was added to the final version of the document published on January 29, 2021. It enables abandonment of SMRs — by retaining the reference to future nuclear facilities — and of “research and demonstration facilities, locations or sites dating back to the birth of nuclear technologies in Canada for which decommissioning was not planned as part of the design.” The CNSC seems willing to ignore international safety standards — and a decision of its own commission — to accommodate nuclear industry proponents of SMRs and allow radioactive waste to be abandoned in place. Meanwhile, the federal government has assigned the nuclear industry itself — via the Nuclear Waste Management Organization — the task of developing a radioactive waste strategy for Canada. Barring public outcry, that strategy will be abandonment. Ole Hendrickson is a retired forest ecologist and a founding member of the Ottawa River Institute, a non-profit charitable organization based in the Ottawa Valley. |
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First a comment on military smrs – then the enthusiastic article about them
spikedpsycho169, 18 Jan 21, Small reactors on a battlefield where the enemy now has suicide drones, rpg’s and homemade rockets. What could possibly go wrong.? Other than electricity, reactors have little use on a field of combat. Some advocate the production of liquid fuels using in situ resources like ammonia, methanol, etc made using ambient materials like air/water. That requires temperatures above 600-800 degrees celsius, Which no reactor currently operates.
White House Accelerates Development Of Mini Nuclear Reactors For Space And The Battlefield
The order looks to accelerate and integrate the development of highly mobile nuclear reactors for space and the terrestrial battlefield. BY BRETT TINGLEY JANUARY 16, 2021
President Trump issued an Executive Order on January 12 that aims to promote small, modular nuclear reactors for defense and space exploration applications. According to a press statement issued by the White House, the order will “further revitalize the United States nuclear energy sector, reinvigorate America’s space exploration program, and produce diverse energy options for national defense needs.”
The order instructs NASA’s administrator to prepare a report within 180 days that will define NASA’s requirements and foreseeable issues for developing a nuclear energy system for human and robotic exploratory missions through 2040. The order also calls for a “Common Technology Roadmap” between NASA and the Departments of Energy, Defense, Commerce, and State for implementing new reactor technologies. The full text of the Executive Order can be read at WhiteHouse.gov ………
Section 4 of the Executive Order goes into further detail about the DoD’s energy needs, and outlines the role the Department of Defense will play in this new initiative to develop mobile nuclear reactors …….
The Executive Order also outlines a Common Technology Roadmap that “describes potential development programs and that coordinates, to the extent practicable, terrestrial-based advanced nuclear reactor and space-based nuclear power and propulsion efforts” between the Departments of Energy, Defense, Commerce, State, and NASA. This roadmap will also require “assessments of foreign nations’ space nuclear power and propulsion technological capabilities.” Naturally, one of the most pressing concerns with any nuclear technology is national security, and thus the order also instructs the DoD to work together with NASA and other agencies to identify security issues associated with any potential space-based nuclear systems.
With this new Executive Order, the White House seeks to propel the United States to the forefront of all of the work being conducted in compact reactor research. While the wording in the statement focuses more on space exploration, the Department of Defense’s involvement is highly important. Since space environments are similar in that resupply is a tricky, if not impossible, endeavor, NASA could help jump-start the DoD’s mobile nuclear program even further if both are really working on it collaboratively, although the requirements will be somewhat different. “There’s sometimes a risk of forcing too much commonality,” a White House official told SpaceNews.com. “What this executive order does is ensure that there is a deliberate look at what those opportunities may be.”
If realized, the Executive Order’s accompanying statement reads, this initiative could lead to a “transportable small modular reactor for a mission other than naval propulsion for the first time in half a century.”
Contact the author: Brett@TheDrive.com https://www.thedrive.com/the-war-zone/38687/white-house-accelerates-development-of-mini-nuclear-reactors-for-space-and-the-battlefield
”Small Modular Reactors”’- governments are being sucked in by the ”billionaires’ nuclear club”
SNC-Lavalin Scandal-ridden SNC-Lavalin is playing a major role in the push for SMRs.
Terrestrial Energy….. Terrestrial Energy’s advisory board includes Dr. Ernest Moniz, the former US Secretary of the Dept. of Energy (2013-2017) who provided more than $12 billion in loan guarantees to the nuclear industry. Moniz has been a key advisor to the Biden-Harris transition team, which has come out in favour of SMRs.
The “billionaires’ nuclear club” …“As long as Bill Gates is wasting his own money or that of other billionaires, it is not so much of an issue. The problem is that he is lobbying hard for government investment.”
Going after the public purse
Bill Gates was apparently very busy during the 2015 Paris climate talks. He also went on stage during the talks to announce a collaboration among 24 countries and the EU on something called Mission Innovation – an attempt to “accelerate global clean energy innovation” and “increase government support” for the technologies.
Gates’ PR tactic is effective: provide a bit of capital to create an SMR “bandwagon,” with governments fearing their economies would be left behind unless they massively fund such innovations.
governments “are being suckers. Because if Wall Street and the banks will not finance this, why should it be the role of the government to engage in venture capitalism of this kind?”
It will take a Herculean effort from the public to defeat this NICE Future, but along with the Assembly of First Nations, three political parties – the NDP, the Bloc Quebecois, and the Green Party – have now come out against SMRs.
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Mini-Nukes, Big Bucks: The Interests Behind the SMR Push https://watershedsentinel.ca/articles/mini-nukes-big-bucks-the-money-behind-small-modular-reactors/
It’s remarkable that only five years ago, the National Energy Board predicted: “No new nuclear units are anticipated to be built in any province” by 2040.So what happened? The answer involves looking at some of the key influencers at work behind the scenes, lobbying for government funding for SMRs. |
Big doubts on small nuclear reactors – on economics, on waste problems
Former U.S. regulator questions small nuclear reactor technology, Business case for small reactors ‘doesn’t fly,’ says expert on nuclear waste, Jacques Poitras · CBC News Jan 15, 2021 A former head of the United States’ nuclear regulator is raising questions about the molten-salt technology that would be used in one model of proposed New Brunswick-made nuclear reactors.
The technology pitched by Saint John’s Moltex Energy is key to its business case because, the company argues, it would reuse some of the nuclear waste from Point Lepreau and lower the long-term cost and radioactivity of storing the remainder.
But Allison Macfarlane, the former chairperson of the U.S. Nuclear Regulatory Commission and a specialist in the storage of nuclear waste, said no one has yet proven that it’s possible or viable to reprocess nuclear waste and lower the cost and risks of storage.
“Nobody knows what the numbers are, and anybody who gives you numbers is selling you a bridge to nowhere because they don’t know,” said Macfarlane, now the director of the School of Public Policy and Global Affairs at the University of British Columbia.
“Nobody’s really doing this right now. … Nobody has ever set up a molten salt reactor and used it to produce electricity.”
Macfarlane said she couldn’t comment specifically on Moltex, calling information about the company’s technology “very vague.”
But she said the general selling point for molten-salt technology is dubious.
“Nobody’s been able to answer my questions yet on what all these wastes are and how much of them there are, and how heat-producing they are and what their compositions are,” she said.
“My sense is that all of these reactor folks have not really paid a lot of attention to the back end of these fuel cycles,” she said, referring to the long-term risks and costs of securely storing nuclear waste.
Moltex is one of two Saint John-based companies pitching small nuclear reactors as the next step for nuclear power in the province and as a non-carbon-dioxide emitting alternative to fossil fuel electricity generation.
Moltex North America CEO Rory O’Sullivan said the company’s technology will allow it to affordably extract the most radioactive parts of the existing nuclear waste from the Point Lepreau Generating Station.
The waste is now stored in pellet form in silos near the plant and is inspected regularly.
The process would remove less than one per cent of the material to fuel the Moltex reactor and O’Sullivan said that would make the remainder less radioactive for a much shorter amount of time.
Existing plans for nuclear waste in Canada are to store it in an eventual permanent repository deep underground, where it would be secure for the hundreds of thousands of years it remained radioactive………..
Shorter-term radioactivity complicates storage
Macfarlane said a shorter-term radioactivity life for waste would actually complicate its storage underground because it might lead to a facility that has to be funded and secured rather than sealed up and abandoned.
“That means that you believe that the institutions that exist to keep monitoring that … will exist for hundreds of years, and I think that is a ridiculous assumption,” she said.
“I’m looking at the United States, I’m seeing institutions crumbling in a matter of a few years. I have no faith that institutions can last that long and that there will be streams of money to maintain the safety and security of these facilities. That’s why you will need a deep geologic repository for this material.”
And she said that’s assuming the technology will successfully extract all of the most radioactive material.
“They are assuming that they remove one hundred per cent of the difficult, radionuclides, the difficult isotopes, that complicate the waste,” she said.
“My response is: prove it. Because if you leave five per cent, you have high-level waste that you’re going to be dealing with. If you leave one per cent, you’re going to have high-level waste that you’re going to be dealing with. So sorry, that one doesn’t fly with me.”
Macfarlane, a geologist by training, raised doubts about molten-salt technology and waste issues in a 2018 paper she co-authored for the Bulletin of the Atomic Scientists………. https://www.cbc.ca/news/canada/new-brunswick/nuclear-waste-reactors-new-brunswick-allison-macfarlane-moltex-arc-1.5873542
Small modular reactor plan bolsters nuclear industry’s future, but renewables could address energy issues now,
Small modular reactor plan bolsters nuclear industry’s future, but renewables could address energy issues now, https://www.cbc.ca/news/opinion/opinion-small-modular-reactor-strategy-1.5869623
While SMRs are hailed as start of a nuclear renaissance, there are big questions about costs and timeframe, Eva Schacherl · CBC News Jan 15 In late December, as many Canadians were easing into a low-key holiday break, Minister of Natural Resources Seamus O’Regan pulled out a bag of goodies for the nuclear industry. It was the much-hyped Small Modular Reactor Action Plan for Canada.
Small modular reactors (SMRs) are experimental nuclear technologies that are still on the drawing board. They are the nuclear power industry’s hope for overcoming the problems that have plagued it: high costs, radioactive waste, and risks of accidents.
Public interest groups across the country, however, argue that SMRs won’t solve these issues.
The dozen SMR vendors backing the technology include GE-Hitachi, Westinghouse, and SNC-Lavalin (which, along with two U.S. corporations, already holds a multibillion-dollar contract with the federal government to run Canadian Nuclear Laboratories at Chalk River, Ont.). O’Regan’s plan did nothing to clarify the price tag of a nuclear renaissance, but it says the federal government expects to share the cost and risks of SMR projects with the private sector.
Proponents say that SMRs will cost less than conventional nuclear and be flexible enough to serve remote communities reliant on costly and polluting diesel. O’Regan has also said that SMRs are necessary to fight climate change: in short, a utopia of “clean, affordable, safe and reliable power,” as he told a nuclear conference last year.
But is this any more than a dream? The enthusiasm for SMRs sometimes sounds like a New Age cult — let’s examine the claims.
First, must we have a new generation of nuclear reactors to get to the promised land of net-zero emissions?
Many studies show a path to net-zero without nuclear energy. Energy scientists who modelled a 100 per cent renewable energy system for North America, for example, concluded that nuclear energy “cannot play an important role in the future” because of its high cost and safety issues. Closer to home, it has been shown how Ontario can meet its electricity demand without nuclear, using renewables, hydro and storage.
Meanwhile, a new study in Nature Energy uses data from 123 nations to show that countries focused on renewables do much better at reducing emissions.
Can SMRs one day be cost-competitive with renewable energy?
Right now, the cost difference between nuclear power and other low-carbon alternatives is growing because renewables and energy storage keep getting cheaper.
Meanwhile, the estimated cost of the most advanced SMR project, in Idaho, has increased from $4.2 billion to $6.1 billion before shovels are even in the ground. That’s nearly $12,000 per kilowatt of generation capacity.
an small reactors wean off-grid communities and mines from diesel fuel?
Finally, nuclear energy is neither green nor clean. All reactors produce radioactive waste that will need to be kept out of the biosphere for hundreds of thousands of years.
The proposal that some SMR models would reuse highly radioactive CANDU fuel and plutonium will only create worse problems in the form of radioactive wastes that are even more dangerous to manage.
For a livable future, Canada has pledged to get to net-zero emissions by 2050. Will we get a bigger bang for our buck from reactors that are still just design concepts? Or by retrofitting buildings, improving energy efficiency, and building solar, wind, geothermal and tidal power with existing technology?
Clearly, the latter. And it needs to be done now.
As pandemic cripples America, Donald Trump orders funding for military Small Nuclear Reactors in space
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Trump orders DoD to explore use of nuclear power for space, Defense News,
By: Aaron Mehta 14 Jan 21, WASHINGTON — In the waning days of his administration, U.S. President Donald Trump has signed an executive order aimed at pushing the Department of Defense toward quickly developing and producing small nuclear reactors for military use — and to see if they could be used by military space vehicles.
The order, signed Jan. 5 and posted publicly Jan. 12, is not the first time the value of nuclear power for military operations has been studied. There is a long history of the Pentagon considering the issue, which proponents believe could alleviate the department’s massive logistics challenge of keeping fuel moving around the world……… In terms of terrestrial efforts, the executive order requires the defense secretary to, within 180 days, “establish and implement a plan to demonstrate” a micro-reactor at a domestic military installation — in other words, setting up an actual test of a nuclear reactor at a U.S. military location. However, that doesn’t mean the first test will be on a military base. One location to keep an eye on is the Nevada National Security Site, a Department of Energy location roughly 65 miles from Las Vegas……. Noted Hans Kristensen of the Federation of American Scientists, “the signing of this at the very last minute of the Trump administration suggests someone is concerned [President-elect Joe Biden] might not support the program.” Specific to space, the order calls for the defense secretary, in consultation with the secretaries of state, commerce and energy as well as the NASA administrator, to “determine whether advanced nuclear reactors can be made to benefit Department of Defense future space power needs” and to “pilot a transportable micro-reactor prototype.” In addition, the order directs an analysis of alternatives for “personnel, regulatory, and technical requirements to inform future decisions with respect to nuclear power usage” as well as “an analysis of United States military uses for space nuclear power and propulsion technologies and an analysis of foreign adversaries’ space power and propulsion programs.” ……… While the order speeds up the timetable for a test of a nuclear reactor at a military installation, the idea of using nuclear power is hardly a new one for the DoD. In fact, the Pentagon currently has two different development tracts for small nuclear reactors. The first is “Project Pele,” an effort to create a small mobile nuclear reactor in the 1-5 MWe power range, being run out of the Strategic Capabilities Office. In March 2020, the department awarded three companies a combined $39.7 million to start design work for Project Pele, with plans to select one firm in 2022 to build and demonstrate a prototype. The second effort is run through the office of the undersecretary of acquisition and sustainment. That effort, ordered in the 2019 National Defense Authorization Act, involves a pilot program aiming to demonstrate the efficacy of a small nuclear reactor, in the 2-10 MWe range, with initial testing at a Department of Energy site around 2023. If all goes well, the goal is to have a permanent small nuclear reactor on a military base around 2027. Even if all those timelines are hit, it is unlikely microreactors could proliferate quickly throughout the military………. https://www.defensenews.com/smr/nuclear-arsenal/2021/01/13/trump-orders-dod-to-explore-use-of-nuclear-power-for-space-systems/ |
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Most Maldon District Councillors oppose Bradwell big nuclear development: small reactors would carry the same dangers.
favour of a recommendation to send a letter in support of the development of small modular reactors at the site of Bradwell B power station. The letter was sent to MP John Whittingdale and to the head of nuclear development at the Department for Business, Energy and Industrial Strategy in support of the development.
position to back Bradwell B due to the environmental and ecological impacts it would have.
on the plans for Bradwell B that a strong majority of councillors agreed with BANNG that Bradwell is an unsuitable, unacceptable and unsustainable site for nuclear development.
environmental, heritage and ecological problems as those opposed by Maldon
District Council in relation to Bradwell B.”
In Indonesia – small nuclear reactors as a prelude to nuclear weapons?
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