From here to eternity: a small plaque on the campus of the University of Chicago commemorates the site of Fermi's first atomic pile--and the start of the world's nuclear waste problem. (Photo: Nathan Guy via Flickr)
On December 2, 1942, a small group of physicists under the direction of Enrico Fermi gathered on an old squash court beneath Alonzo Stagg Stadium on the Campus of the University of Chicago to make and witness history. Uranium pellets and graphite blocks had been stacked around cadmium-coated rods as part of an experiment crucial to the Manhattan Project–the program tasked with building an atom bomb for the allied forces in WWII. The experiment was successful, and for 28 minutes, the scientists and dignitaries present observed the world’s first manmade, self-sustaining nuclear fission reaction. They called it an atomic pile–Chicago Pile 1 (CP-1), to be exact–but what Fermi and his team had actually done was build the world’s first nuclear reactor.
The Manhattan Project’s goal was a bomb, but soon after the end of the war, scientists, politicians, the military and private industry looked for ways to harness the power of the atom for civilian use, or, perhaps more to the point, for commercial profit. Fifteen years to the day after CP-1 achieved criticality, President Dwight Eisenhower threw a ceremonial switch to start the reactor at Shippingport, PA, which was billed as the first full-scale nuclear power plant built expressly for civilian electrical generation.
Shippingport was, in reality, little more than a submarine engine on blocks, but the nuclear industry and its acolytes will say that it was the beginning of billions of kilowatts of power, promoted (without a hint of irony) as “clean, safe, and too cheap to meter.” It was also, however, the beginning of what is now a, shall we say, weightier legacy: 72,000 tons of nuclear waste.
Compton: The Italian navigator has landed in the New World.
Conant: How were the natives?
Compton: Very friendly.
But soon after that initial success, CP-1 was disassembled and reassembled a short drive away, in Red Gate Woods. The optimism of the physicists notwithstanding, it was thought best to continue the experiments with better radiation shielding–and slightly removed from the center of a heavily populated campus. The move was perhaps the first necessitated by the uneasy relationship between fissile material and the health and safety of those around it, but if it was understood as a broader cautionary tale, no one let that get in the way of “progress.”
A stamp of approval: the US Postal Service commemorated Eisenhower's initiative in 1955.
By the time the Shippingport reactor went critical, North America already had a nuclear waste problem. The detritus from manufacturing atomic weapons was poisoning surrounding communities at several sites around the continent (not that most civilians knew it at the time). Meltdowns at Chalk River in Canada and the Experimental Breeder Reactor in Idaho had required fevered cleanups, the former of which included the help of a young Navy officer named Jimmy Carter. And the dangers of errant radioisotopes were increasing with the acceleration of above-ground atomic weapons testing. But as President Eisenhower extolled “Atoms for Peace,” and the US Atomic Energy Commission promoted civilian nuclear power at home and abroad, a plan to deal with the “spent fuel” (as used nuclear fuel rods are termed) and other highly radioactive leftovers was not part of the program (beyond, of course, extracting some of the plutonium produced by the fission reaction for bomb production, and the promise that the waste generated by US-built reactors overseas could at some point be marked “return to sender” and repatriated to the United States for disposal).
Attempts at what was called “reprocessing”–the re-refining of used uranium into new reactor fuel–quickly proved expensive, inefficient and dangerous, and created as much radioactive waste as it hoped to reuse. It also provided an obvious avenue for nuclear weapons proliferation because of the resulting production of plutonium. The threat of proliferation (made flesh by India’s test of an atomic bomb in 1976) led President Jimmy Carter to cancel the US reprocessing program in 1977. Attempts by the Department of Energy to push mixed-oxide (MOX) fuel fabrication (combining uranium and plutonium) over the last dozen years has not produced any results, either, despite over $5 billion in government investments.
In fact, there was no official federal policy for the management of used but still highly radioactive nuclear fuel until passage of The Nuclear Waste Policy Act of 1982. And while that law acknowledged the problem of thousands of tons of spent fuel accumulating at US nuclear plants, it didn’t exactly solve it. Instead, the NWPA started a generation of political horse trading, with goals and standards defined more by market exigencies than by science, that leaves America today with what amounts to over five-dozen nominally temporary repositories for high-level radioactive waste–and no defined plan to change that situation anytime soon.
Yes, it’s time for that metaphor again. If you grew up near a TV during the 1960s or ’70s, you probably remember the ever-burning Yule Log that took the place of programming for a large portion of Christmas Day. The fire burned, it seemed, perpetually, never appearing to consume the log, never dimming, and never, as best the kid who stared at the television could tell, ever repeating.
Now, if you have been watching this space about as intently as I once stared at that video hearth, perhaps you are thinking that this eternal flame is about to reveal itself as a stand-in for nuclear power. You know, the theoretically bottomless, seemingly self-sustaining, present yet distant, ethereal energy source that’s clean, safe and too cheap to meter. Behold: a source of warmth and light that lasts forever!
Yeah. . . you wish! Or, at least you’d wish if you were a part of the nuclear industry or one of its purchased proxies.
But wishing does not make it so. A quick look at the US commercial reactor fleet proves there is nothing perpetual or predictable about this supposedly dependable power source.
Another plant that scrammed during Sandy, New York’s Nine Mile Point, is offline again (for the third, or is it the fourth time since the superstorm?), this time because of a containment leak. (Yes, a containment leak!)
Other plants that have seen substantial, unplanned interruptions in power generation this year include Indian Point, Davis-Besse, Diablo Canyon, Hope Creek, Calvert Cliffs, Byron, St. Lucie, Pilgrim, Millstone, Susquehanna, Prairie Island, Palisades. . . honestly, the list can–and does–go on and on. . . and on. Atom-heads love to excuse the mammoth capital investments and decades-long lead times needed to get nuclear power plants online by saying, “yeah, but once up, they are like, 24/7/365. . . dude!”
Except, of course, as 2012–or any other year–proves, they are very, very far from anything like that. . . dude.
So, no, that forever-flame on the YuleTube is not a good metaphor for nuclear power. It is, however, a pretty good reminder of the still going, still growing problem of nuclear waste.
December saw the 70th anniversary of the first self-sustaining nuclear chain reaction, and the 30th anniversary of the first Nuclear Waste Policy Act. If the 40-year difference in those anniversaries strikes you as a bit long, well, you don’t know the half of it. (In the coming weeks, I hope to say more about this.) At present, the United States nuclear power establishment is straining to cope with a mountain of high-level radioactive waste now exceeding 70,000 tons. And with each year, the country will add approximately 2,000 more tons to the pile.
And all of this waste, sitting in spent fuel pools and above-ground dry casks– supposedly temporary storage–at nuclear facilities across the US, will remain extremely toxic for generations. . . for thousands and thousands of generations.
There is still no viable plan to dispose of any of this waste, but the nation’s creaky reactor fleet continues to make it. And with each refueling, another load is shoehorned into overcrowded onsite storage, increasing the problem, and increasing the danger of spent fuel accidents, including, believe it or not, a type of fire that cannot be extinguished with water.
So, if you want to stare at a burning log and think about something, think about how that log is not so unlike a nuclear fuel assembly exposed to air for a day or two. . . or think of how, even if it is not actually burning, the high levels of radiation tossed out from those uranium “logs” will create heat and headaches for hundreds of thousands of yuletides to come.
Oh, and, if you are still staring at the Yule log on a cathode ray tube television, don’t sit too close. . . because, you know, radiation.
Calvert Cliffs Nuclear Power Plant, Units 1 & 2, near Lusby Maryland. (photo: NRCgov)
The Nuclear Regulatory Commission cannot issue a license for the construction and operation of a new nuclear reactor in Maryland–that is the ruling of the NRC’s Atomic Safety and Licensing Board (ASLB) handed down Thursday.
EDF had originally partnered with Constellation Energy, the operator of two existing Calvert Cliffs reactors, but Constellation pulled out of the project in 2010. At the time, Constellation balked at government requirements that Constellation put $880 million down on a federal loan guarantee of $7.6 billion (about 12 percent). Constellation wanted to risk no more than one or two percent of their own capital, terms the feds were then willing to meet if Constellation and EDF could guarantee the plant’s completion. Constellation also found that requirement too onerous.
Constellation has since been purchased by Exelon.
The ASLB decision technically gives EDF 60 days to find a new American partner, but given the history and the current state of the energy market, new suitors seem highly unlikely. It marks only the second time a license has been denied by the ASLB. (The first, for the Byron, Illinois plant in 1984 was overturned on appeal. Byron opened the next year, and Illinois’s groundwater has never been the same.) The NRC also declined to grant a license to the South Texas Project late last year when US-based NRG Energy (corporate ID courtesy of the Department of Redundancy Department) pulled out of the project, leaving Japanese-owned Toshiba as the only stakeholder.
Michael Mariotte, Executive director of NIRS, called Thursday’s decision “a blow to the so-called ‘nuclear renaissance,’” noting that back in 2007, when permit requests were submitted for Calvert Cliffs 3, the project was considered the “flagship” of a coming fleet of new reactors. “Now,” said Mariotte, “it is a symbol for the deservedly failed revival of nuclear power in the US.”
The Crystal River story is long and sordid. The containment building cracked first during its construction in 1976. That crack was in the dome, and was linked to a lack of steel reinforcement. Most nuclear plants use four layers of steel reinforcement; Crystal River used only one. The walls were built as shoddily as the dome.
The latest problems started when Crystal River needed to replace the steam generator inside the containment building. Rather than use an engineering firm like Bechtel or SGT–the companies that had done the previous 34 such replacements in the US–Progress decided it would save a few bucks and do the job itself.
Over the objections of on-site workers, Progress used a different method than the industry standard to cut into the containment building. . . and that’s when this new cracking began. It appears that every attempt since to repair the cracks has only led to new “delamination” (as the industry calls it).
The Crystal River reactor has been plagued with problems ever since PEF self-managed a steam generation replacement project in September 2009. The replacement project was intended to last 3 months, until PEF informed the Commission that it had cracked the containment structure during the detensioning phase of the project. PEF subsequently announced that the CR3 reactor would be repaired and back in service by the 3rd quarter of 2010…then by the 4th quarter of 2010…and then by the first quarter of 2011. On March 15, 2011 PEF informed the Commission that it had cracked the reactor again during the retensioning process and subsequently told the Commission that it estimated repair costs of $1.3 billion and a return to service in 2014. Shortly thereafter, the Humpty Dumpty Crystal River reactor suffered yet another crack on July 26, 2011.
That July crack was later revealed to be 12-feet long and 4-feet wide–and here, at least when it came to notifying the Nuclear Regulatory Commission, “later” means much later. . . like four months later.
The issue, of course–as anyone with a lifetime crack habit will tell you–is that this all gets very expensive. Not only is there the cost of the repairs. . . and the repairs to the repairs. . . and the repairs to the repairs to the repairs. . . there is the cost of replacing the energy that was supposed to be supplied to PEF customers by the crippled reactor.
And then there is the cost of the new reactors. . . .
For those who thought that, with the new year, nuclear power had turned a page and put its “annus horribilis” behind it–as if the calendar were somehow the friend America’s aging reactors–let’s take a quick look at January 2012.
Closer to home, the lone reactor at Wolf Creek, Kansas, was shutdown on January 13 after the failure of a main generator breaker was followed by a still-unexplained loss of power to an electrical transformer. Diesel generators kicked in to run the safety systems until external power was restored, but the plant remains offline while a Nuclear Regulatory Commission inspection team tries to figure out what went wrong.
In April 1966, Esquire Magazine published a story by Gay Talese that is still considered one of the greatest magazine articles of all time; the article, the cover story, was titled “Frank Sinatra Has a Cold.”
The piece, still very much worth the read, says much about celebrity, journalism, and, of course, celebrity journalism, but germane here is a point Talese makes early on: for most people, having a cold is a trivial matter–after all, it’s called the “common” cold–but when a man, a cultural icon, a giant of stage and screen like Sinatra (remember, this is 1966) has a cold, well. . . .
Frank Sinatra with a cold is a big deal. It affects him, his mood, his ability to perform, and so it affects his friends, his entourage, his personal staff of 75, his audience, and perhaps a part of the greater popular culture. In other words, as Talese wants you to understand, in this case, a cold is anything but trivial.
Gregory Jaczko, the chairman of the United States Nuclear Regulatory Commission, made some comments to the press earlier this week. Jaczko, it seems, is worried. He believes, as noted in an Associated Press story, that “U.S. nuclear plant operators have become complacent, just nine months after the nuclear disaster in Japan.” The NRC head thinks that a slew of events at over a dozen domestic nuclear facilities reveal the safety of America’s reactors to be something less than optimal.
To be clear, safety concerns at any kind of plant, be it a soda bottler or a microchip manufacturer, are probably not trivial, but when the safe and secure operation of a nuclear facility comes into question–as the aftermath of Chernobyl or the ongoing crisis in Japan will tell you–it ratchets up concern to a whole different level. So, when the man who more or less serves as the chief safety officer for the entirety of the nation’s nuclear infrastructure says he’s worried, many, many other people should be worried, too.
For those that think nothing has changed in United States regulation since the Japanese earthquake and tsunami started the ongoing crisis at the Fukushima Daiichi nuclear facility, think again. The pre-disaster mentality of “What could possibly go wrong?” has been replaced with reassurances that “Stuff like that hardly ever happens!”
At least that is the impression conveyed by the current chairman of the US Nuclear Regulatory Commission, Gregory Jaczko, in a pair of early October interviews. During two NRC-sponsored events, Jaczko fielded questions first from nuclear industry professionals and those considered friendly to the expansion of nuclear power, and then, in a separate session two days later, responded to representatives from public interest groups and other individuals generally seen as opposed to nuclear energy.
While the tone of the questions differed somewhat predictably in the two sessions, Chairman Jaczko’s attitude did not. Jaczko took several opportunities to praise the NRC staff and the processes and protocols used by the commission, repeating in both panels that the primary duty of his agency is ensuring the safety of nuclear facilities in the United States.
Beyond his broad assurances and patient, capable demeanor, however, many of the chairman’s assertions about both the NRC process and the progress being made toward his stated safety goals highlighted notable contradictions and troubling biases inherent in America’s nuclear regulatory regime.
To be fair, the pre-Fukushima outlook was not exactly “What could possibly go wrong?” In terms of the types of accidents and the repercussions of contamination, containment breaches, radioactive releases, meltdowns, melt-throughs, and a host of other undesirable situations, regulators and industry insiders alike were probably quite aware of what could go wrong. But as US nuclear proponents and profiteers strove to convey the impression of an informed industry, they also moved to downplay the threats to public safety and made sure to stress that, when it came to disaster scenarios, they had it covered. Read the rest of this entry →
As September drew to a close, residents of southwest Michigan found themselves taking in a little extra tritium, thanks to their daily habit of breathing (h/t emptywheel). The tritium was courtesy of the 40-year-old Palisades Nuclear Generating Station in Covert Township, which suffered its third “event” (as they are politely called) in less than two months, and was forced to vent an indeterminate amount of radioactive steam.
While it is nice to see rectors shut themselves down when a vital system goes offline, remember that “turning off” a fission reactor is not like flicking a light switch. Shutting down a reactor is a process, and the faster it is done, the more strain it puts on the reactor and its safety and cooling systems. And even after fission is mitigated, a reactor core generates heat that requires a fully functional cooling system.
Which is kind of an interesting point when considering that Palisades had just been restarted after completing repairs to a breach in the cooling system that was reported to be leaking more than 10 gallons per minute. Prior to that, a “special inspection” was ordered August 9 after a pipe coupling in the plant’s cooling system failed.
(By the way, have no fear, Michiganders, a public affairs representative for the Nuclear Regulatory Commission reassured the public that the concentration of tritium was “far below regulatory releases,” and that “as soon as it goes out, it gets diluted further.” You know, in the air. . . that you breathe.)
News of the Palisades tritium burp came at roughly the same time as a breathless (if a press release can be breathless) announcement from Dominion Resources, the folks responsible for the North Anna nuclear plant, the facility that scrammed after being shaken beyond design specifications by the earthquake centered in nearby Mineral, Virginia:
Our investigation showed the units tripped before the loss of off-site power when multiple reactor sensors detected a slight power reduction in the reactors. . . .
The root cause team determined that this occurred as result of vibration in the reactor or the monitoring devices in the reactors, or both.
Again, good that the reactors scrammed when something registered the quake, but noteworthy again because it was previously believed that the automatic shutdown started as a result of a loss of power–power required to operate the cooling systems, not only for the reactors, but for the spent fuel pools, as well.
This is not just a perpetual motion machine laugh line. This inherent flaw in the design of LWRs is at the root of two other prominent tales of nuclear safety (or lack thereof).
The first, of course, is the ongoing, ever-metastasizing disaster in Japan, where failures in the cooling systems at Fukushima Daiichi following a massive earthquake and tsunami resulted in hydrogen explosions, core meltdowns, and, likely, melt-throughs that contaminated and continue to poison sizable portions of the country and surrounding sea.
The second story concerns the proposal for the construction of two new reactors at Plant Vogtle, a nuclear power facility near Augusta, Georgia.
The Vogtle reactors would be the first to be built in the US in a generation, and they have come under some additional scrutiny in part because they would be the first of a new-design LWR called the AP1000. A riff on previous Toshiba/Westinghouse pressurized water reactors, the AP1000′s most noticeable “innovations” are meant to address the active cooling paradox. First, it has emergency “dump tanks,” reservoirs of water situated above the reactor that could, in an emergency, empty into the reactor via gravity, providing up to 72 hours of “passive” cooling. Second, rather than housing the core in a reinforced concrete shell with a metal liner, the AP1000 would have an all-steel containment vessel which would, in theory, be able to expel heat through convection.
While these two design features both highlight and attempt to address a dangerous flaw that is a part of every other nuclear facility in the United States–that water has to be actively cycled through a reactor core to keep it from melting–the design still predates the Fukushima quake, and fails to truly incorporate the lessons of that disaster.
The massive March 11 earthquake shutdown power to the Fukushima Daiichi plant, and thus the cooling systems, and the tsunami that followed flooded the diesel-powered backup generators, but that was only part of the problem. Investigations now show that even if Fukushima had in some way managed to maintain power, the cooling system would still likely have failed for at least some (and likely all) of the reactors, and (and this is important) for the spent fuel pools, as well. That is because the quake not only caused a loss of power, it also caused numerous breaches in the cooling system. Cracks in the containment vessel, broken pipes, and dislodged couplings would have likely resulted in a calamitous drop in water levels, even with full power. Less than successful attempts to restore the cooling systems with new, external power sources, and the large amounts of contaminated water that continue to pour from the plant, have demonstrated just how severely the physical infrastructure was damaged.
There are additional concerns about the design of the AP1000 (possible corrosion of the all-metal containment vessel and less than rigorous computer modeling of seismic tolerances, for instance), but, in a post-Fukushima world, simply addressing the active/passive cooling problem (and only doing so for the reactor and not the spent fuel pools) does not promise a safe nuclear facility.
The chairman of the U.S. Nuclear Regulatory Commission says the agency may need to incorporate its findings about a nuclear disaster in Japan into a license to build a new nuclear plant in Georgia.
NRC Chairman Gregory Jaczko said Wednesday [September 28] he believes the license to build two more reactors at Plant Vogtle near Augusta should include conditions that reflect the findings of a review of this year’s disaster at the Fukushima Dai-ichi plant.
While it is true that “may” and “should” are not “will” and “must,” and it is also the case that the Fukushima taskforce recommendations themselves do not fully address the problem outlined here, Chairman Jaczko’s comments do make the point that there are indeed lessons to be learned from the Japanese crisis, and right now, in the US, that education has not taken place.
The chairman and his fellow commissioners have wrestled all summer with the pace of post-Fukushima reform. Jaczko has argued for what in NRC terms is considered a speedy consideration of the new safety regime, but a majority of the panel has managed to slow the process down to a point where no new regulations will likely be in place by the time the NRC is required to rule on the Vogtle permits.
But, because the Vogtle hearings have revealed the Chairman’s understanding of at least some of the problems, it also reveals an obvious path for Jaczko and those (such as Senator Barbara Boxer (D-CA)) who would also want any new construction or operating permits to only be approved under guidelines drafted in response to the Fukushima disaster. If the industry–and the commissioners most friendly to it–wants to move quickly ahead on new construction and the relicensing of 40-year-old plants, then it should be required that they move quickly on adopting the Fukushima taskforce recommendations. No new safety rules, no new permits–the political calculus should be that simple.
And, if the NRC won’t do the political math, then it should be up to elected government to run the financial numbers.
Building the new Vogtle reactors is projected to cost $14.8 billion. That’s projected–the existing Vogtle plant went over budget by a factor of 14. But even if the new reactors stay on budget, there is still no way they would get built without help from the Federal Government. To that end, the Obama administration okayed an $8.33 billion loan guarantee for The Southern Company, owners of Plant Vogtle, contingent on the NRC’s approval of the plans. (By way of comparison, that is 16 times the size of the loan given to the now-defunct solar technology company Solyndra.) While there are a myriad of reasons why that and other such guarantees should never be proffered, at minimum, the federal government should now freeze the financial backing for new construction until the NRC passes–and industry adopts–an enhanced safety regime.
This wouldn’t be a one-shot power play. Hot on the heals of Vogtle, the V.C. Summer nuclear facility in South Carolina is also looking to add two new AP1000 reactors, and its permit process is also underway. And financial markets understand what a bad bet that project is, too. Summer is also owned by Southern, but it is operated by SCANA. Moody’s, the bond-rating agency, just downgraded SCANA’s debt to one notch above “junk” status, citing the cost of the proposed new reactors.
Meanwhile, the Commonwealth of Virginia has handed over $7 million in precious state funds to North Carolina’s Babcock & Wilcox to open a prototype of a small modular reactor (SMR) in the town of Forest, near Lynchburg. The SMR is small, indeed–160 megawatts (in contrast to the 1,800 megawatt capability of Virginia’s North Anna plant)–and it’s built entirely underground, supposedly enhancing its safety when faced with a potential terrorist attack. How it will provide greater protection from an earthquake or flood seems (at best) less obvious.
Yet, with all of this action, all of these new designs, all of this lobbying, and all of this (as “serious” people repeatedly caution) scarce government money, still no one is addressing another part of the nuclear equation: spent fuel. With Yucca Mountain now (supposedly) abandoned, the United States has no long-term plan for handling the already large and ever-growing problem of dangerous spent nuclear fuel. Right now, each nuclear facility stores its used fuel in either pools, dry casks, or both. The spent fuel pools require an active cooling system, which faces most of the same problems inherent in reactor cooling. Dry casks–used for fuel that is cool enough to remove from the pools–are considered safer, but they are far from “safe.” They are above ground, emit some radiation, and are theoretically vulnerable to terrorist attack (and the casks at North Anna moved and sustained “cosmetic” cracks in the August earthquake). In many US plants, both pools and casks are already filled to capacity. Expanding the number of nuclear reactors only accelerates the storage crisis.
And it must be reiterated, all of this activity comes a mere six months after the start of the Fukushima disaster. The latest announcement from the Japanese government–that they will relax the evacuation order for more than 100,000 residents even though their towns have not yet been decontaminated–says nothing about an easing of the emergency, and everything about a government that frankly just doesn’t know what else to do. The United States, though obviously larger, has reactors near enough to densely populated areas that a nuclear accident would make Japan’s evacuation problem seem like a rush hour fender bender. And the US government’s plan to deal with a nuclear disaster is no more impressive than Japan’s.
The saddest part, of course, is that it needn’t be that way. Beyond the political and financial tools proposed above, the NRC actually already has the power to demand the nuclear industry own up to the new seismic reality. When Westinghouse Electric came before the commission in May, it was ordered to fix its seismic calculations. Though Westinghouse grumbled, it did not question the NRC’s authority to rule on seismic concerns.
Nuclear regulators already have “sufficient information and knowledge” to deal with earthquake risks at existing U.S. reactors and don’t need to wait for a broader review, a safety advocate said.
The Nuclear Regulatory Commission developed seismic rules for new plants in 1996 and has since approved preliminary construction for proposed nuclear units at a Southern Co. plant in Georgia and certified an early reactor design by Toshiba Corp.’s Westinghouse Electric unit, according to comments filed with the agency today by David Lochbaum. . . .
“If the NRC truly lacks sufficient information about seismic hazards and how safety at nuclear power reactors is affected, then the agency cannot responsibly have issued early site permits and certified new reactor designs,” he said.
Of course, having the authority and exercising it are not the same thing, but just as the NRC is not truly handcuffed by the fight over the Fukushima taskforce recommendations, the entire country need not be shackled to such a flawed, dangerous and expensive energy source as nuclear. The US government has demonstrated that it has the authority to make decisions on energy sources, and it has shown that it actually has the money to invest–big money. Of course, be it the NRC, Congress or President Obama, when it comes to moving beyond nuclear to demonstrably safer and truly renewable sources, what the US has not shown is the will.
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Correction: Last week’s post included the wrong location for the Seabrook nuclear plant; Seabrook is in New Hampshire. Apologies and thanks to the readers that spotted the error.
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