On Monday, September 12, an incinerator explosion at a French nuclear waste processing center killed one, injured four, and created just enough nuclear news to edge this week’s other nuclear story right out of the headlines.
The explosion, which is reported not to have caused any leak of radiation, was at a facility that reprocesses used nuclear reactor fuel in order to create a more toxic, less stable form of fuel commonly known as “mixed oxide” or MOX. MOX, which is a tasty blend of uranium and plutonium, was in at least some of the rods in some of the reactors at Japan’s Fukushima Daiichi facility when it suffered catastrophic failures after the March 11 earthquake and tsunami–and the presence of MOX fuel made the fallout from explosions at the Japanese plant more dangerous as a result. (More dangerous than already extremely dangerous might seem like a trivial addendum, but it is of note if for no other reason than the manufacture and use of MOX fuel is what nuclear power proponents think of when they call it a “renewable resource.”) Read the rest of this entry →
Sunday, September 11, will of course be the tenth anniversary of a tragedy that fundamentally changed America in ways we are still trying to understand. But this 9/11 is also a day for other anniversaries, ones that will likely get little, if any, recognition in the US.
In 1985, for instance, September 11 saw a Keystone Kops-like collection of miscues during a test of the remote shutdown protocols at the Limerick Generating Station, a boiling water nuclear reactor outside of Philadelphia. During the shutdown, a valve on a cooling system failed to open, and attempts to manually open the valve were met by a locked door, and a call for a key, which, after a 15-minute wait, turned out to be the wrong key. Once the proper key was found and the door was opened, the operators found the valve’s hand wheel chained and padlocked to prevent accidental opening. Those keys were in the abandoned control room. Bolt cutters had to be used before the operators could finally open the valve.
All that time, the reactor core’s temperature was increasing. Fortunately, the test was done during startup, when decay heat is relatively low, so control rods were able to slow the reaction enough to provide time to overcome the multiple barriers to opening the valve. Had the plant been operating at full power when this series of problems occurred, the outcome would likely have not been so rosy.
September 11 will also mark six months since the massive earthquake and tsunami that struck northern Japan triggered a series of cataclysmic failures at the Fukushima Daiichi nuclear complex. That accident provides no amusing anecdotes or happy endings, but those horrible events should provide a loud wakeup call and numerous object lessons for nuclear power programs across the globe.
But here in the United States, six months on from Japan’s quake, there are no such proclamations or pledges–if anything, quite the contrary–and almost no movement on even the most incremental of recommendations.
In the face of lessons still not learned, a trio of nuclear experts gathered in Washington, DC on September 8 to highlight key concerns that still have not been addressed six months after the start of the world’s worst nuclear accident. Included on the list are several issues discussed in this space since the Fukushima quake (this is a partial and edited list–please use the link for more concerns and more explanation):
The U.S. regulatory response since Fukushima has been inadequate. “Six months after Fukushima, it seems clear that the U.S. is not going to undertake the type of fundamental, no-holds-barred look at its nuclear regulatory practices that followed the much less serious accident at Three Mile Island some 30 years ago.”
America should avoid post-9/11 mistakes in tightening reactor safety standards. “In responding to Fukushima by issuing orders, the NRC should not make the same mistakes as it did following 9/11, when industry stonewalling delayed implementation of critical security measures for many years. Even today, some post 9/11 security upgrades have not been completed at numerous plants. . . . The U.S. must respond to Fukushima in a much more comprehensive way or it may soon face an accident even worse than Fukushima.”
The U.S. was warned of Fukushima-style problems but failed to act … and is still failing to do so. “U.S. reactors have some of the shortcomings of the Fukushima plants. Furthermore, citizen groups and scientists had tried to call one of these – spent fuel pool vulnerability — to Nuclear Regulatory Commission attention during the last decade. The NRC dismissed these efforts. . . . Without a root cause analysis of its own failure to heed the now validated warnings about spent fuel pools, the NRC may patch the technical problems revealed by Fukushima, but it won’t fix the underlying shortcomings that allow defects to persist until catastrophic events rather than regulatory vigilance force the nuclear industry and the public to face up to them.”
Emergency planning zones in the U.S. must be expanded. “In contrast to the [NRC] Task Force conclusions, we believe that emergency planning zones should be expanded, certain hydrogen control measures should be immediately enforced and spent fuel transfer to dry casks should be accelerated. Also, the safety margins of new reactors need to be reassessed.”
The recent East Coast earthquake should spur more NRC safety analysis. “The earthquake near the North Anna nuclear plant, which reportedly exceeded the plant’s seismic design basis, reinforces the urgency of the NRC Fukushima task force’s recommendation that all plants immediately be reviewed for their vulnerability to seismic and flooding hazards based on the best available information today.”
To that last point, as noted before, the earthquake that struck Mineral, VA in late August should have moved US nuclear regulators to quickly adopt the recommendations of the Fukushima task force. Well, the quake doesn’t seem to have moved the NRC much, but it did move some things, like most of the 117-ton dry storage casks at the North Anna facility. . . and, as we now have learned, pretty much everything else there:
Last month’s record earthquake in the eastern United States may have shaken a Virginia nuclear plant twice as hard as it was designed to withstand, a spokesman for the nuclear safety regulator said on Thursday.
Dominion Resources told the regulator that the ground under the plant exceeded its “design basis” — the first time an operating U.S. plant has experienced such a milestone. . . .
That a facility experienced such a milestone is now known because, over two weeks after the fact, data from the so-called “shake plates” has finally been released (almost a week after it was expected):
“We are currently thinking that at the higher frequencies, the peak acceleration was around 0.26″ g, which is a unit of gravity that measures the impact of shaking on buildings, said Scott Burnell, an NRC spokesman.
The plant was designed to withstand 0.12 g of horizontal ground force for parts that sit on rock, and 0.18 g for parts that sit on soil, Burnell said.
Dominion’s sensors recorded average horizontal ground force of 0.13 g in an east-west direction and 0.175 g in a north-south direction, officials said.
The apparent discrepancy seems to stem from the distance between instruments used by the US Geological Survey and those cited by North Anna’s operator, Dominion, but even taking the smaller numbers, the design limits of the plant were exceeded.
Dominion officials have been quick to point out that even though some things have moved and some structures show cracks, those changes are merely cosmetic and in no way dangerous. But nuclear engineer John H. Bickel says that vessels and pipes are not the first things to go in a quake:
[A]n analysis of plants hit by earthquakes had shown that the most vulnerable components were ceramic insulators on high-voltage lines that supply the plants with power and electrical relays, which resemble industrial-strength circuit-breakers and switches.
Even if the relays are not damaged, they might be shaken so that they change positions, cutting off the flow of electricity or allowing it to flow without any command from an operator.
As previously noted (with more than a hint of irony), in order to safely generate electrical power, nuclear plants need an uninterrupted supply of electrical power. Without electricity, cooling systems and important monitors in both the reactors and spent fuel storage pools cannot function. Without effective cooling, nuclear facilities are looking at a series of disasters like the ones encountered at Fukushima Daiichi. That the most quake-vulnerable components directly affect a nuclear plant’s power supply is yet another data point underscoring the urgent need to review and enhance seismic safety at US facilities.
But even before that nation-wide examination can take place, the damage to the shaken North Anna plant needs to be surveyed and analyzed so that Dominion might restart its reactors. What does Dominion need to show in order to get the thumbs up, what criteria need to be met, what repairs or retrofits should be required? To paraphrase the head of the NRC: Who knows?
In an interview last week, NRC Chairman Gregory Jaczko told Reuters it was unclear what the plant would need to show to resume operations because it is the first time an operating plant has sustained a beyond-design-basis quake.
As Hurricane Irene revealed the lack of national guidelines for what to do in the face of an approaching storm, the Virginia earthquake has shown that the United States has no regulatory regime for learning, analyzing, or acting on data from events that exceed the often-negotiated-down design parameters of its nuclear facilities.
In fact, the NRC does not even have a post-quake inspection protocol. Inspections of North Anna are being done according to procedural guidelines drawn up by the Electric Power Research Institute, “a nonprofit utility consortium that has inspected dozens of industrial plants hit by earthquakes around the world.”
Yes, the nuclear industry has written its own post-event checklist, and, in the absence of any other standard, is left alone to use it.
That sort of self-policing leads to some noteworthy analysis, like this from a nuclear industry attorney: “You shake something really hard, and it’s not designed to be shaken that hard — it doesn’t mean that it’s broken.”
But there is something even more disturbing, if that is possible, propagated by the weak regulations and weak-willed regulators. It leaves space for arguments like this one from that same industry lawyer:
The incident helps make the case for new-generation nuclear plants, which have additional safety features. . . . “If you can have a car from 2011 vs. a car from 1978, what are you going to put your toddler in?”
Beyond the fact that no one is actually suggesting the 1978 plants get traded in for newer models (just augmented with them), cars have to compete for consumer dollars in a way that nuclear plants do not. Nuclear plants could not be built, fueled, operated or maintained without massive subsidies, loan guarantees, and infrastructure commitments from the federal government.
Also of note, a 2011 automobile is safer and more efficient than a 1978 model because of government regulation. The auto industry has fought improvements like mandatory airbags, three-point restraints, and CAFE standards, but a strong government imposed those requirements anyway. And your toddler is safer in that car because the Consumer Product Safety Commission reviews the design of child car seats, and laws mandate their use.
Where the comparison does work, however, is that both represent a false choice. Just as a car is not the only way to transport a toddler, nuclear plants are not the only means by which to generate power. And in 2011, there are many more choices, and many safer choices, than there were in 1978.
Which recalls the important contrast between a country such as Germany–which, faced with a restive electorate and lessons to be learned from Japan’s misfortune, has made a commitment to not just trade in nuclear but trade up to renewable alternatives–and the US, where corporate influence and politics as usual have left the government with seemingly few options beyond willful ignorance and calcification.
Even without recognition of the Japan quake’s semi-anniversary, September 11 will probably be a tense day for most Americans, especially those with personal connections to the events of ten years ago. But while remembrance will be hard, it will mostly be so because of an event now relegated to history.
Residents of Japan, still living with an ongoing and ever-evolving threat, cannot so neatly define their anguish. And if there is a message to be found in this coincidental concurrence of dates, it perhaps springs from there. While Americans can debate what could have been done to prevent the attacks of 9/11/2001, it is a debate held in hindsight. For the Japanese dealing with the aftermath of their disaster, hindsight still seems like a luxury to be enjoyed very far in the future.
But, for the United States, a debate about what can be done to prevent a Fukushima-like disaster here is theoretically blessed, both because it is a debate that can be had before the next crisis, and because it is a debate that can be informed by events. And experience, science, economics and common sense are all pretty clear on what needs to be done.
On Friday, August 26, as Hurricane Irene began its slow journey up the US central Atlantic coast, power companies operating 20 nuclear rectors in nine states made plans to deal with the storm and its potential aftermath.
North Carolina’s Brunswick reactors, operated by Progress Energy, were powered down to 70 percent of peak capacity. At New Jersey’s Oyster Creek, near Barnegat Bay, plant operator Exelon chose to shutdown its reactor completely. Dominion Resources, owner of New London, Connecticut’s Millstone plant took one reactor down to 70 percent, the other to 50 percent.
Dominion’s Surry plant in Virginia stayed at full power, as did Entergy’s Indian Point, 35 miles north of New York City, and the Pilgrim plant in Massachusetts.
The reason some plants chose to reduce output or go offline was because, if an accident caused or required the plant to scram–that is, quickly and completely shut down–the stress on the reactor increases the chance of a future safety breach. As Bob Alvarez, of the Institute for Policy Studies, explains: Read the rest of this entry →
Uninterrupted electricity is essential for nuclear safety. Without electricity, nuclear power plants are unable to pump cooling water through reactor cores and spent fuel pools to prevent overheating and fuel melting.
Without power, plant operators cannot control reactor activity or remotely monitor spent fuel.
It was the loss of electrical power that led to the partial-meltdown of multiple reactors, significant radiation release and damage to the spent fuel pools at the Fukushima Daiichi plant in Japan after the devastating 9.0 earthquake and tsunami in March.
First, I can’t move on without noting two problems there in the last paragraph.
I don’t know how Feinstein defines it, but I think most of the world has dropped the “partial” from the assessment of the meltdowns at Japan’s Fukushima Daiichi nuclear facility. Maybe DiFi has some secret pictures that show tiny bits of intact cladding floating on top of the blobs of corium now understood to be at the bottom of at least some of the damaged reactors, and so she feels uncomfortable going all the way, but the company that nominally runs the facility and the country that is unlucky enough to serve as its home feel sure enough to call it a meltdown without the modifier, so I think US Senators should, too.
Also, it is now believed that a meltdown in at least one of the reactors started before the tsunami that followed Japan’s March 11 earthquake. In other words, as I reported previously, the earthquake damaged the containment vessel or, more likely, the cooling system before the massive wave knocked out the backup generators and, thus, power to the cooling system. So, the loss of power did not lead to at least some of the meltdown—earthquake damage did.
That is not just an academic nitpick, it goes directly to how Feinstein and the entire US regulatory structure should evaluate the safety of domestic nuclear power plants.
Second: “Uninterrupted electricity is essential for nuclear safety.” Just think about that for a second. Uninterrupted electricity is essential for the safe generation of electricity. It is a logic that seems as vulnerable to reason as nuclear cooling systems are to seismic and tidal events.
But third, I do want to congratulate Senator Feinstein for recognizing and writing the obvious:
The incident [Tuesday’s magnitude 5.8 quake centered in Virginia] was a stark reminder of how vulnerable America’s nuclear power plants are to natural disasters.
I mean that congratulations sincerely. Yes, we didn’t really need a new reminder—Japan’s Fukushima disaster is recent and ongoing—but the Mineral, VA earthquake was another indication that our nuclear plants are vulnerable to natural and manmade disasters at many points. And more American politicians should say just what DiFi said, instead of brushing off Japan’s already extant stark reminder as a “can’t happen here” event, or quickly forgetting Tuesday’s quake because it resulted in “minimal damage and no loss of life” (to use Feinstein’s own rosy words).
Feinstein continues by laying out four “lessons” that Japan and Virginia should teach us. (It is really more like two or three points with repeats, but that’s OK.) The headlines:
First, our country needs a comprehensive, national policy to address the management of spent fuel, the radioactive waste produced while generating electricity by fission.
Second, today’s efforts to protect against seismic and flooding hazards may not be sufficient.
Third, we must improve the redundant safety systems to respond to disasters.
Finally, for spent fuel stored at reactor sites, dry casks are safer and more secure than permanent storage in spent fuel pools.
Both the first and fourth points note that storing spent fuel in pools of circulating water is not a particularly safe, efficient, or cost-effective way of dealing with one of nuclear power generation’s biggest problems. Not only are these pools also dependent on an uninterrupted source of electricity to keep water circulating and levels high enough to keep the rods—now packed in at many times the pools’ original designed capacity—from overheating and melting themselves or cracking the water and triggering hydrogen explosions, the cooling systems for the pools are also vulnerable to seismic events.
Feinstein says that spent rods should be moved to dry casks and eventually to a secure repository, observing that spent fuel in Japan housed in dry casks had no problems after the March 11 quake and flood. Strangely, though, the senator cites the Nuclear Regulatory Commission’s special taskforce report on the aftermath of the Japanese disaster as the inspiration for making this call for dry casks and a national fuel repository—strange because, as both Physicians for Social Responsibility and I noted back when the report was released, the task force pointedly did not make any recommendations for moving spent fuel to dry casks or to off-site repositories.
Feinstein also says she has learned that protections against earthquakes and flooding may not be sufficient. Again, DiFi modifies—there is really no need to say “may” here. From Fukushima Daiichi to the reactors in Virginia known as North Anna 1 and 2, it should now be very clear that nuclear plants are walking a precarious line between “minimal damage” and catastrophic failure.
Let’s look more closely at what happened on Tuesday. A 5.8 earthquake centered 15 miles from the North Anna nuclear power generating facility cut electrical power to the plant. Backup diesel generators kicked in to provide power to the cooling systems, averting the overheating of either the reactor core or the pools of spent fuel. Good news, as far as it goes, but there are several disconcerting caveats.
First, we don’t know if the plant—which is theoretically designed to withstand a quake of a 6.2 magnitude—has actually emerged from Tuesday’s tremor completely unscathed. The reactors are currently being brought to a cold shutdown so that they may be inspected further. Not only must the containment vessels be more closely inspected, the cooling system must be tested for leaks. Some of the pipes and conduits for that system are underground. As reactor expert Paul Gunter has noted, an underground rupture, one that might be leaking radioactive tritium into ground water, is quite possible and needs to be investigated more fully.
(As a caveat to the caveat, I must note that we also need to find a way to verify that the public is being fully informed about any damage and radioactive leaks—not a sure thing in light of both the evolving story of cover-up in Japan and this summer’s expose on collusion between the NRC and the nuclear industry.)
Second, the North Anna plant gets its name from Lake Anna, an artificial lake created to provide a reservoir for the cooling requirements of the nuclear facility. What if the quake had caused the dam that holds the water in Lake Anna to rupture? Beyond the dangerous flooding to well-populated communities downstream, the water level in the reservoir would drop to a point where the nuclear plant’s cooling system would fail. If this were to happen, no amount of redundant power generation would fix the problem. Does this sound farfetched? It is not. Virginia is noteworthy for its lack of attention to its aging infrastructure—in fact, according to the American Society of Civil Engineers’ infrastructure report card [PDF], the condition of Virginia’s dams gets a D-minus.
(It should be noted that the initial inspection of the Lake Anna dam after Tuesday’s quake showed no new damage.)
Third, not all of North Anna’s backup generators worked on Tuesday. Only three of the four came online after power was lost. (Hooray for required redundancy.) What is not clear is what effect this had on the plant’s ability to function normally, or what would have happened if grid power had not been restored as quickly to the facility.
And finally, to simply give a Richter scale number as a sort of assurance of the safety of a nuclear facility is overly simplistic if not downright deceptive. Here’s why:
As noted here today and before, there are many systems that have to survive an earthquake—the reactor containment vessel, its cooling system, the spent fuel pools, their cooling systems, the reactor building, the monitoring equipment, and a plant’s connection to a steady supply of electrical power. In theory, all these systems were evaluated when the plans for a nuclear facility were initially approved. They all should survive a quake of a specified magnitude.
However, all of America’s nuclear facilities were licensed during a time when regulators assessed designs based on what is called Deterministic Seismic Hazard Analysis (DSHA). But, as noted in a May Congressional Research Service report [PDF]:
Since then, Probabilistic Seismic Hazard Analysis (PSHA) has been adopted as a more comprehensive approach in engineering practice. Consequently, the NRC is reassessing the probability of seismic core damage at existing plants.
I am not an expert in plate tectonics, but what I read tells me that you would feel more secure with a PSHA-generated standard—and what I have learned from Fukushima is that I want that standard applied to all the systems needed to safely operate a nuclear power plant. But what this report tells me is that the NRC is only in the midst of some process of reevaluating plants’ seismic vulnerability—a process that was to have begun last year but has moved very slowly (and this is only the evaluation stage)—and that this re-evaluation is of the probability of core damage, which, to my eye, is not the same as an evaluation of every system needed for the reactor and the spent fuel pools to remain safe.
And I am not alone in my worries. Here’s the NRC itself after it looked at North Anna in April (via the Institute for Southern Studies and the Center for Public Integrity):
Specifically, the NRC report notes that portions of water and gaseous suppression systems and hose stations “are not seismically designed.”
The report noted that “potential leakage can occur through penetrations following seismic event.”
There’s also concern about what a major quake would mean for the water-filled pools used to store spent fuel at most U.S. nuclear plants. Bob Alvarez, a senior scholar at the Institute for Policy Studies who recently authored a report on the dangers of spent fuel storage in the United States, addressed the issue in a piece on the IPS blog posted shortly after the quake:
The North Anna reactors are of the Westinghouse Pressurized Water design and went on line in 1979 and 1980 respectively. Since then the reactors have generated approximately 1,200 metric tons of nuclear spent fuel containing about 228,000 curies of highly radioactive materials — among the largest concentrations of radioactivity in the United States.
Alvarez went on to note that almost 40 percent of the radioactivity in North Anna’s spent fuel pools is in the form of cesium-137, a long-lived isotope that presents serious health risks and accumulates in the food chain. He continued:
The spent fuel pools at North Anna contain four to five times more spent fuel than their original designs intended. As in Japan, all U.S. nuclear power plant spent fuel pools do not have steel lined, concrete barriers that cover reactor vessels to prevent the escape of radioactivity. They are not required to have back-up generators to keep used fuel rods cool, if offsite power is lost. Even though they contain these very large amounts of radioactivity, spent reactor fuel pools in the United States are mostly contained in ordinary industrial structures designed to protect them against the elements.
This goes to explaining the confusion I see over whether just parts or the entirety of a nuclear facility is required to meet a specific earthquake safety standard. But what it doesn’t do is imply that a single, plant-wide standard will be used in the future.
As noted when the special task force report came out earlier this summer, the recommendation that the current patchwork of safety rules should be unified and standardized was actually being slow-walked by three of the five NRC commissioners. Finally, one week ago, the commission agreed to give its technical team 45 days to analyze some of the recommendations, but they will be given a full 18 months to analyze the recommendation that the NRC revise its entire regulatory framework in light of lessons learned after the Fukushima disaster.
It should also be noted that there is currently no law that requires the NRC to apply the new, better seismic standards when evaluating requests for license renewals or the building of additional reactors at existing facilities. (There is a bill, languishing in the House, designed to fix this. . . did I mention it was languishing?)
Which brings us back to Senator Feinstein, or, really, her California colleague, Sen. Barbara Boxer (D), who chairs the Committee on Environment and Public Works and has oversight responsibilities over the NRC. While DiFi has written about the lessons of this week’s Virginia quake, Boxer has demanded action on the NRC taskforce report on the lessons learned from Fukushima. At a hearing on August 2, Boxer demanded the NRC pick up the pace on evaluating the recommendations and report back to her by November. With the NRC’s decision on how it will move forward, and the latest in a lengthening string of “wakeup calls” having caused incidents at North Anna and a number of other eastern nuclear facilities, perhaps both of California’s Senators might consider official hearings before then.
It must also be mentioned that while I was writing this post, Japan’s Prime Minister, Naoto Kan, has stepped down. Stories on the resignation concurrently cite his dismal poll numbers from an anti-nuke electorate, and the lack of support from pro-nuclear members of his party. Kan, who had previously hinted at leaving after the Fukushima crisis was brought under control (it seems I correctly predicted he’d be gone well before that), has also signaled that he wanted to wean Japan off nuclear power for electrical generation and move more aggressively toward renewable sources. Both possible reasons for his early exit speak to some form of accountability—one to the public, the other to entrenched nuclear industry masters—and both have probably played some roll. But what matters going forward is to whom the next leader will answer, and what happens with Japanese nuclear facilities will make that very clear.
In the US, we have a less clear choice—no one has proposed a move away from nuclear power (quitethecontrary)—which, alas, probably tells us who calls the shots in our country. But that ugly political reality doesn’t change the physical one—United States nuclear facilities remain vulnerable to numerous seismic and tidal threats. As Diane Feinstein concludes, “We need to learn the lessons we can to assure that next time we are ready—not just lucky.”
Imagine, if you will, living somewhat close to a nuclear reactor—not right next door, but close enough—and then imagine that an accident at that reactor causes a large release of radioactive isotopes into the atmosphere. Certainly scary, but maybe less scary because you know your government has computer models that show where the nuclear fallout will blow and fall, and they explain that the amounts that will blow and fall on you are negligible.
Sure, you might think twice about that reassurance, but it is not like they are saying everything is OK. The government, after all, did evacuate some people based on their fallout models. . . so they are on top of it.
Then imagine five months later, after you’ve breathed the air, drank the water, and tramped dirt and snow in and around your home, the government reveals that even though they had the models, and even though they knew the amounts of radioactivity pouring into the atmosphere from the damaged nuclear plant, they didn’t input the known amounts into the fallout model, so that when the government was reassuring people, it was doing so based on a minimum measurable number used to build the model, and not the actual amounts then being released. So, now, you find that not only have you been living in a place that was well within a zone now littered with hazardous fallout, you find that many who were evacuated were moved directly into the path of that radioactive plume. Read the rest of this entry →
Focusing on broad, long-term goals while ignoring obvious, near-term problems is order of the day, be it in the Fukushima reactors or deficit-obsessed DC.
I feel like I am saying this every week, but tear yourself away for a minute, if you can, from the daily deficit follies—I promise we’ll get back to them.
As I detailed last week, a study called the Near-Term Task Force Review listed a set of suggestions for ways the US nuclear power industry could improve safety in the wake of the meltdowns and continuing crisis in Japan’s Fukushima reactors. The recommendations were a mixed bag of mostly regulatory tweaks–nothing particularly bad, as far as they go–but obviously missing from the report was any program that would effectively improve the way spent fuel rods are stored.
That sounds glacial, especially given the ongoing Japanese crisis and many US plants of similar design facing the possibility of similar problems, but even this cautious approach to some cautious recommendations was more-or-less opposed by three of the five commissioners. Read the rest of this entry →
It isn’t the best of times; how can we keep it from being the worst of times?
In one country, a government that campaigned on a move to green energy reacts to the nuclear crisis in Japan by reaffirming its commitment to nuclear power. In another country, a government that, only nine months ago, endorsed a plan to expand its reliance on nuclear power reacts to the Fukushima disaster by vowing to shut down all domestic nuclear reactors by 2022, and invest in conservation and alternative energy.
The latter of the two examples is, at present, actually the one more dependent on nuclear power for its domestic electricity production, so what can explain its more populist response to current events?
The first country is, of course, the USA, where the federal government is the product of a “first past the post,” two-party electoral system. The second country is Germany, which chooses its national government by a multi-party, mixed member proportional representation system.
In Germany, the government of Chancellor Angela Merkel is reacting as much—or more—to domestic political pressure as it is to the disaster in Japan. . . and that is not at all a bad thing. Because, in Germany, not only is the government showing a reasonable reaction to a global catastrophe, not only is it changing policy to more accurately reflect the desires of the German people, the government has made a move that looks like it will boost the German economy.
The value of German alternative energy companies instantly shot up after Chancellor Merkel moved early in the week to shift her country away from nuclear power and toward renewable resources. Whereas, in the US, once-promised government investment in a green energy revolution has fallen victim to Beltway deficit hysteria.
This contrast threatens to leave he United States off the leading edge of a technological revolution for the second time this century.
Because of the anti-science policies and hot-button politics of the George W. Bush administration, the US has, to a large extent, missed out on the economic benefits of the genetic engineering revolution. Other countries have made themselves much more hospitable to the research and investment necessary to capitalize on those breakthroughs. And now, the pro-nuclear, pro-coal, Big-Oil-coddling posture of the current Congress and the Obama administration—combined with the cuts to alternative energy programs—threaten to again leave America behind.
A green energy revolution could provide more than “green shoots,” it could be an economic engine equal to, or even greater than, the information revolution that propelled growth in the 1990s. At a time when the US is mired in the worst economic slump since the Great Depression, this is an opportunity it cannot afford to miss. And yet, without an effective group or mechanism available to pressure the people in power, a miss is looking more and more likely.
As it now stands, Germany has a chance to capitalize on a disaster, while the United States looks likely to lose another decade. For Germany, a shot at wisdom. For the US, continued foolishness.
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