The Union of Concerned Scientists (UCS) has weighed in on the U.S. response to Fukushima and their conclusion is clear: We’re moving too slowly….No, wait, we’re moving too fast!...Check that, too slow!Scott also contributes on occasion to the Huffington Post.
Taking a page from Goldilocks, who couldn’t seem to find the right size chair, UCS can’t seem to find the right speed for applying lessons learned in the aftermath of the massive earthquake and tsunami that struck Japan a year ago.
After first praising the Nuclear Regulatory Commission for reacting quickly to the events in Japan, a new UCS report prods the agency to move faster. Then report declares that “speed is not always a virtue.” In the most remarkable twist of logic, UCS criticizes the nuclear energy industry for “acting too hastily by launching a voluntary program” to improve safety.
Really? Moving too quickly to improve safety?
At least the UCS report got something right. The industry is not waiting for orders from the NRC to act. Our FLEX strategy protects against the two main safety issues at Fukushima¬—the loss of electrical power and the loss of cooling capability—by stationing emergency backup equipment in multiple locations, including regional centers.
Every U.S. nuclear operator has committed to order additional equipment by the end of the month, and more than 300 pieces of backup emergency equipment has already been delivered or ordered. Rather than applauding these proactive safety measures, UCS complains that the industry is “jumping the gun” by getting ahead of the NRC.
The industry and the NRC are in general agreement on the issues that need to be addressed, but the regulatory process takes time. After the terrorist attacks on September 11, 2001, the NRC fast-tracked the industry’s safety response by issuing a series of orders, with a deadline of October 2004.
After the industry met that deadline, the NRC began a rulemaking process to codify the orders and essentially get its procedural/bureaucratic house in order. Along the way, it added a few more requirements that weren’t finalized until close to the end of the decade. In that case, UCS distorts the facts to complain that the industry’s response was too slow.
Now that we are moving even more quickly to respond to Fukushima, UCS says we are going too fast. Does UCS seriously believe we should just sit and wait while the NRC process unfolds? We see ways to strengthen our defenses against extreme events now, and we are acting. To do otherwise would be an abrogation of our responsibility.
The NRC will oversee our safety enhancements, and will not hesitate tell us to do something more or something different—backed by the agency’s full enforcement authority—as the regulatory process plays out.
That approach might not satisfy Goldilocks or UCS, but we think it is juuuuust right to ensure that lessons learned from Japan are applied as quickly and efficiently as possible.
Monday, March 12, 2012
UCS Channels Goldilocks In Response to Fukushima
Friday, January 13, 2012
Industry Presents New Strategy to Increase Safety, Address NRC’s Post-Fukushima Recommendations
NEI’s Adrian Heymer, executive director for Fukushima regulatory response, held a media briefing Wednesday to explain the FLEX approach:
FLEX is a set of portable equipment that is located in diverse locations around the plant. We think there needs to be more than one set of equipment at diverse locations that can be quickly deployed and connected to provide injection and power supplies for instrumentation. What you want to do is inject water so that you keep the reactor [and spent fuel pools] cool. At the same time you want to know what is going on in the reactor—so it’s instrumentation for monitoring, for which you need power supplies.FLEX will include equipment such as additional pumps, generators, batteries and chargers that will be located in diverse locations—for instance, on the east and west sides of the plant site. The equipment will be commercial-grade, but with program controls—which are still being defined—so that the equipment will be tested with results being subject to NRC oversight.
The strategy is “flexible” in that it does not dictate that permanent equipment be installed, but rather that the plant sites prepare portable equipment that could be used for any catastrophic event. The New York Times’ Matthew Wald explains:
A clear problem at Fukushima, he [Heymer] said, was that the tsunami was bigger than what the plant was designed for. If the operators had taken an approach based on specific hazards, he said, “instead of having a meter high barrier, they might have had a 10-meter high barrier,” although the actual tsunami was 14 to 15 meters high. The institute’s approach would be to take some general precautions rather than depend on the commission’s regular approach of determining probability before deciding what steps are needed.Thus, the FLEX approach allows the industry to more quickly address high-priority safety concerns ahead of NRC regulations, which Heymer said could take time to implement due to the administrative analyses and technical reviews that would be involved:
Eventually there would be, we think, a rulemaking that would go in parallel. But this is a way of installing and achieving additional mitigation contingency in a shorter period of time. So, you get the same benefit, but rather than going through the normal process we try to expedite it by just getting on and installing the equipment and having a rulemaking to go in parallel.In a blog post yesterday, the NRC acknowledged the industry’s FLEX plan as a step in the right direction:
The NRC staff believes this approach is a reasonable starting point, although more work is needed on defining these strategies. We also must ensure the NRC can inspect how plants put the strategies in place and that we can hold plants accountable for keeping those strategies ready and available.
The bottom line is that we believe these combined developments may enhance the agency’s approach to implementing the recommendations.The FLEX approach is just one part of a larger industry response to the events at Fukushima. Heymer said that the FLEX strategy would allow for at least three days of keeping the nuclear fuel cool, and that regional response centers are also being pursued as yet another line of defense against a catastrophic event. As the various levels of safety enhancements are added, the industry plans to train and test its plant workers regularly so that they are well-equipped for emergency situations.
The FLEX concept is based on how the industry responded to the events of 9/11, in which additional security precautions—such as portable generators, water pumps, hoses and batteries—were put in place to mitigate against “beyond design-basis events,” or unlikely events that are considered outside the scope of what a plant should be designed or regulated to withstand.
Please note, this story was also cross-posted at NEI's Safety First microsite.
Friday, December 16, 2011
NRC’s Post-Fukushima Recommendations Will Be Mandatory for U.S. Nuclear Energy Facilities
Over the past few months, anti-nuclear groups have regularly attacked our industry for allegedly resisting implementing changes at our facilities in the wake of the incident at Fukushima Daiichi. While that’s simply not the case, it’s a perception that often gets reinforced in the press—and this morning’s mailbag contained yet another example.
Politico Pro posted an article this morning, “NRC Won’t Make Post-Fukushima Safety Recommendations Mandatory,” that is misleading and egregiously inaccurate. At issue is how the term “mandatory” is used to show how the Nuclear Regulatory Commission will both implement and mandate its post-Fukushima recommendations.
The lede states:
The NRC on Thursday cemented a to-do list of post-Fukushima safety recommendations for U.S. nuclear plants but won't make them mandatory.
That caught the attention of Jason Zorn, NEI’s assistant general counsel, who made it clear to me in no uncertain terms that this is incorrect. I spoke with him this afternoon to explain why in further detail:
The story focuses on the commission’s decision that it was premature to conclude that the Fukushima-related lessons learned are “necessary for adequate protection.” However, a new requirement does not have to be based on "adequate protection" to be mandatory. As long as the NRC acts through a legally binding vehicle, such as an order or a rulemaking, the result will be legally binding. The commission's decision on "adequate protection" in the staff requirements memorandum (SRM) goes only to whether these recommendations will be subjected to a full regulatory analysis or not, and has nothing to do with them being "mandatory."
Zorn points to SECY 11-0137—the SRM that prioritizes how the NRC will respond to the Fukushima lessons learned—and said that the second paragraph cannot be taken out of context from the first.
The first paragraph clearly shows that the commission has approved the NRC staff’s post-Fukushima recommendations to impose many of the lessons learned through orders or rulemaking. Both orders and rulemaking impose legally binding and enforceable requirements. In other words, they all will become mandatory at some point; it’s just a matter of how you are going to get there that’s the difference.
He explains that the SRM’s second paragraph shows that the NRC has yet to decide what level of protection (either “adequate protection” or “‘extra’ adequate protection”) each recommendation will fall under before each is mandated. The paragraph states:
In the absence of a fully developed justification for a proposed new requirement, the Commission finds it premature to initiate actions on the Near Term Task Force recommendations under the premise of assuring or redefining the level of protection of public health and safety that should be required as adequate in accordance with the backfit rule. The Commission will evaluate the staff’s basis for imposing new requirements when documented in notation vote papers for any new requirements promulgated by orders or rulemaking.
The commission will need further evidence to support each recommendation being categorized as either “adequate protection” or “‘extra’ adequate protection” before being required. Zorn states:
The commission simply said that they want the staff to look at the underlying basis and do a full analysis of impacts and benefits where appropriate. In contrast, requirements imposed under an adequate protection basis can be imposed with essentially no meaningful regulatory analysis. The staff’s original recommendation to impose many of the recommendations through orders or rulemaking was left completely intact by the commission.
So what’s next? Zorn replies:
The details are far from final. The task force will come back to the commission in a few months with their analysis of each recommendation and the commission will vote whether each should fall under the “adequate” or “extra adequate” categories. The NRC has these processes in place to ensure that new requirements are adequately understood and justified before they are imposed.
I think Zorn “adequately” (pardon the pun) explained why the Politico Pro piece is misleading. Hopefully his explanation will make it to Rep. Edward Markey (D-Mass.) who issued a press release yesterday with the same misinterpretation:
While I welcome the step the commission took today, I am disappointed that a majority of the Commissioners voted to reject the recommendation of the NRC Near-Term Task Force on Fukushima that the safety upgrades be made mandatory and not leave their implementation subject to a future cost-benefit analysis.
Inside Look at “Adequate Protection”
Since I had Zorn’s attention for a few minutes, I also asked him if he could explain the background on “adequate protection.” His explanation was fairly easy to understand.
The Atomic Energy Act authorizes the NRC to impose requirements (i.e. make them “mandatory”) by regulation or order. Once a regulation, order or license is issued, it is legally binding and enforceable, meaning the NRC can issue a penalty or take other enforcement action if a licensee violates the terms.
Separately is the fact that the Atomic Energy Act also basically allows the NRC to impose new requirements under one of two options: “necessary for adequate protection” or “‘extra’ adequate protection.” In a nutshell, it is within the NRC’s discretion to decide into which category a particular new requirement (i.e. the aforementioned regulations, orders or plant licenses) will fall.
The “necessary for adequate protection” category gives the NRC the authority to impose requirements that it believes are necessary for the adequate protection of public health and safety or common defense and security. It is important to note that this does NOT mean that the NRC’s requirements must achieve “absolute protection” (i.e. zero risk), which would be impossible to achieve. It also is important to note that the NRC cannot generally consider costs when deciding whether or not something is necessary for adequate protection.
If the NRC chooses to impose a new requirement as “‘extra’ adequate protection,” it must show that the requirement would have a substantial increase in the overall safety of the plant and the costs to implement are justified. This analysis is known as a “backfit analysis,” which is outlined in the NRC’s regulations at 10 C.F.R. § 50.109. This category requires substantial NRC research and cost-benefit analyses before being implemented. Examples of requirements that have been imposed in the past as “extra adequate protection” are the station blackout rule, aircraft impact assessment rule, and 1994 vehicle bomb rule.
But the bottom line is, once a new requirement is imposed by order or rulemaking—either under the “adequate” or “extra adequate” protection category—it is considered mandatory by the NRC and is both legally binding and enforceable.
Thursday, December 15, 2011
Need A Little Soap To Clean Off the “Dirt”
I came across an article this week penned by professor Benjamin Sovacool that purports to give readers “the dirt on nuclear power.” The article gives way to hasty generalizations and leaves readers with a false view of one of the nation’s safest industries, and I’d like to point out a few places where there are holes in his arguments.
The first problem: Sovacool lumps common industry terms, “incidents” and “accidents,” into one venti-sized category of “accidents.” Why does he do this? I’m guessing to add to the Armageddon-like anxiety he wants his readers to feel.
Sovacool states:
Incidents are unforeseen events and technical failures that occur during normal plant operation and result in no off-site releases of radiation or severe damage to equipment. Accidents refer to either off-site releases of radiation or severe damage to plant equipment. …
Under these classifications, the number of nuclear accidents, even including the meltdowns at Fukushima Daiichi and Fukushima Daini, is low. But if one redefines an accident to include incidents that either resulted in the loss of human life or more than $50,000 in property damage, a very different picture emerges.
He continues by providing additional examples of how everything falling under his redefined “accidents” category leads to death, destruction and demise. However, a couple of key points should be made before he submits his new definition to Merriam Webster.
First, “accidents” are NOT the same as “incidents,” and should not be treated the same way. Each term is distinctly classified because they each require different responses by involved government, regulatory and other agencies in how they are addressed. For example, if you look at auto insurance—your auto insurance company will treat a minor fender bender differently than an accident involving total demolition of the vehicle and injury to the driver (and possibly others). The reason for this is NOT because the auto industry is trying to cheat you, but rather because the auto carrier has to look at the overall picture—safety implications (establish fault—with the driver or equipment?), involved parties (emergency responders, hospitals, etc.), and overall costs of repair.
In the nuclear industry, “incidents” and “accidents” are treated similarly in that they are classified based on how they should be handled and what agencies should be involved. In fact, if you look at the International Atomic Energy Agency’s International Nuclear Event Scale (INES), you will see that they have categorized the two types differently according to affects the incident or accident has on: people and the environment, radiological barriers and control, and defense-in-depth. This categorization serves an important purpose in establishing roles and responsibilities for managing the crisis and determining how to best address and fix the safety problem. For example, an incident involving a fire in one area of the facility not near the nuclear reactor will not warrant a full-scale international investigation, extensive radiation monitoring, federal responders, etc. However, if that fire sparked near the reactor and caused an “accident” at the site, those actions by the nuclear industry would probably be warranted and the global nuclear industry would be at the plant’s doorstep trying to take steps to prevent them from occurring at their own sites.
This is also not to say that the nuclear industry does not learn from “incidents” as well—or that they are any less important. The U.S. Nuclear Regulatory Commission is revered as a model to countries around the world that are creating their own nuclear regulating bodies because of its strict regulatory oversight. The regulator’s role in an “incident” would be just the same as during an “accident”—to ensure that the plant is operating safely or to shut it down immediately. No questions asked. The industry takes safety incredibly seriously and has many layers of built-in protection in reactors’ designs and reinforces best operating practices through employee reporting mechanisms and other daily checks to ensure safety is always first.
Which brings me to another gaping hole in Sovacool’s argument: he clearly ignores the evidence about the nuclear industry’s strong safety record. In paragraph four, he states that the number of nuclear accidents “is low,” but chooses to ignore this crucial fact for the sake of his flawed argument.
Let’s look at the facts. In its 2010 safety and operations report, the World Association of Nuclear Operators, an international organization that consolidates best practices from operating nuclear plants worldwide, found on the topic of safety system performance:
For the 12th straight year, key backup safety systems concurrently met their individual availability goals more than 90 percent of the time. Nuclear power plants are built with multiple safety systems and backup power supplies so these systems are available, if needed, even when maintenance is being performed on a similar system or component. The three principal backup safety systems are two main cooling systems and back-up power supplies used to respond in the event of unusual situations. Each system at every plant has an availability goal just shy of 100 percent, and 93 percent of these backup safety systems met their individual goal, assuring that multiple layers of safety were in place as designed.
On the topic of industrial safety, the report also goes on to state that:
The nuclear industry is one of the nation’s safest working environments. U.S. nuclear plants continued to post a low industrial accident rate in 2010 with 0.09 industrial accidents per 200,000 worker-hours, the lowest level in a decade and well below the 2010 goal of 0.2. Statistics from other industries through 2009, as compiled by the Bureau of Labor Statistics, show that it is safer to work at a nuclear power plant than in the manufacturing sector and even the real estate and financial sectors.
(See NEI’s press release for more information on the report.)
Coincidentally, Sovacool also mentions that the nuclear industry’s death rate—under his new definition of “accidents”—would be extraordinarily high—a claim that does not stand scrutiny if you examine the facts. A March post by Next Big Future gives the latest data in this regard, showing the nuclear industry to have the lowest average death rate per terrawatt-hour (0.04), lower than the coal, oil, natural gas, biofuels, solar, wind, and hydro industries.
Sovacool’s hasty generalizations extend beyond nuclear plants to include reprocessing facilities, and he also shares incredible, “dirty” stats on the nuclear industry:
To put a serious accident in context, according to data from my forthcoming book Contesting the Future of Nuclear Power, if 10 million people were exposed to radiation from a complete nuclear meltdown (the containment structures fail completely, exposing the inner reactor core to air), about 100,000 would die from acute radiation sickness within six weeks. About 50,000 would experience acute breathlessness, and 240,000 would develop acute hypothyroidism. About 350,000 males would be temporarily sterile, 100,000 women would stop menstruating, and 100,000 children would be born with cognitive deficiencies. There would be thousands of spontaneous abortions and more than 300,000 later cancers.
I’ll have to stay tuned to his latest book to see what kind of scientific basis there is to his figures and to investigate whether or not he includes the protective actions that would be taken by the utility or local/state/federal government in the event of an accident. But for now, I’d just like to point out that even in the case of Fukushima, there have not been any radiation-related deaths. The last of three deaths that NEI reported at the facility was not believed to be from radiation, and the other two workers died while trying to stabilize the plant during the tsunami.
Given that the overall premise of his argument is flawed and that none of his facts or stats are cited (or footnoted for that matter!), I’d caution everyone to think twice before believing his “dirt” on the nuclear industry.
Pictured: Benjamin K. Sovacool, from GoodPlanet.info.
Monday, December 12, 2011
NEI Press Release: Effective Regulation of Nuclear Energy Important for Public Confidence in NRC
“Safe performance of nuclear energy facilities and the NRC’s credibility are the two most important factors for policymaker and public confidence in nuclear energy. As such, the industry is concerned with anything that threatens the credibility of either. We are confident that Congress and the White House will take the steps necessary to ensure that the NRC is an efficient, effective regulator that provides oversight of commercial nuclear technology.Click here to find the full statement on NEI's Website.
“The issue that is of most concern is the question of a chilled working environment at the agency, including the possibility of staff intimidation and harassment, at a time when the senior management and staff are working on critical licensing activities and post-Fukushima safety recommendations. The industry takes safety culture issues seriously and we expect the same priority treatment of these issues by our regulator.
“The NRC functions best when it has a full complement of five capable commissioners to provide guidance and direction to the NRC staff. Safety is maximized when NRC and industry resources are focused on those matters that are most important to safety. It is important that the dynamics that exist within the commission be resolved professionally and expeditiously so that the important work of the agency can continue without interruption or distraction. The American people expect and deserve nothing less.
“The industry’s commitment to nuclear power plant safety is unwavering and we will not be distracted from this mission by events at the NRC. Of the top 20 performing plants in the world, 16 of them are American reactors. The industry exceeds federal safety standards and it is critical that our entire industry keep a sharp focus on safety. Furthermore, the industry is taking steps to make safe nuclear energy facilities even safer by applying the lessons learned from the accident in Japan at America’s nuclear power plants.”
Wednesday, November 23, 2011
Are U.S. Navy Diesel Engines Used at Nuclear Plants?
This week I ran across an article in the San Diego Reader on an interview with Greg Palast – “corporate fraud investigator turned investigative journalist.” For those of you who always buy into anything under the veil of “investigative journalism,” I’m here to point out where it can sometimes get iffy.
In the interview with Palast, The Reader says:
Diesel engines take time to warm up before they reach full power-generating capacity. But these massive engines, with base horsepower ratings well into the thousands (and subsequently doubled by strapping on a turbocharger), need to be online and running at full capacity in 10–12 seconds after a failure occurs in order to avert disaster. Frequently harvested from retired cruise ships, the engines simply aren’t capable of firing up as required.Frequently harvested from retired cruise ships? What? I know the industry works closely with former U.S. Navy nukes, but I didn’t think they were THAT close.
I immediately took his claim to NEI’s Principal Engineer Vijay Nilekani who straight out called it FALSE. Here’s his response:
All diesel engines in U.S. nuclear plants come from just three manufacturers (Fairbanks Morse, TransAmerica and I think the third one is General Motors). Although it is true that the same manufacturers do make diesel engines for ships, the diesels supplied to the nuclear industry are “nuclear quality grade,” which means they are very high quality and cost many times more. Also, all spare parts for maintenance are nuclear quality grade as well, coming from the original manufacturer. Unauthorized substitution of parts if not permitted by Nuclear Regulatory Commission regulations.What about their reliability? Are they really as faulty as Palast claims? Nilekani’s answer:
Even though diesel engines are rarely used in the real world for an actual electrical emergency because the transmission systems in the U.S. are very reliable, they still undergo rigorous preventive maintenance per manufacturers’ recommendations (and usually every two years are replaced with new parts). All diesel engines are tested every month to make sure that they start within the required time, load the emergency buses, etc. Even the diesel fuel is inspected and tested to make sure that it is very high quality. There is also a lot of predictive maintenance performed, such as lubricant analysis or vibration analysis, which have helped to keep their reliability in the upper 90th percentile.Whew! So basically, it looks like Palast’s personal agenda of “exposing” the nuclear industry for putting profit before safety has hindered his ability to actually investigate the topic and report the truth. Go ahead and count me out for buying his latest book, although, I’m sure that it would make for some very interesting reading….
Photo: Greg Palast featured in San Diego Reader
Monday, March 28, 2011
The Design and Safe Operation of a Nuclear Reactor
Last week we highlighted NEI’s Everett Redmond in a video on spent fuel pools, today he’s explaining how a nuclear reactor works and the features that are incorporated to maintain safety.
32 Years Later, A Look Back at Three Mile Island
National Public Radio has a short bit on the lessons learned from the Three Mile Island accident that happened this day back in 1979, here’s a snippet:
“The most important changes were what were called human factors,” [former NRC historian Sam] Walker says. “That was the lesson that was most obvious was one, you had to improve operator training. You had to give the operators the knowledge and the tools they needed to be able to deal with a situation like they faced on the morning of March 28, 1979.”
Today every nuclear power plant is required to build a replica of its control room for training purposes.
"It's real," says Ralph DeSantis, communication manager at Three Mile Island. "It's as real as it can be. Like a cockpit simulator for airline pilots, the training is very realistic."
And just like TMI, the nuclear industry will continue to learn and improve upon its safety and operations from the lessons that come out of the Fukushima-Daiichi accident.