It is a warm, humid spring day in Dallas/Fort Worth when strong thunderstorms begin to develop alongside a high-altitude weather system that includes strong winds and convective energy coming from the Rocky Mountains.
By mid-afternoon, the atmosphere reaches a tipping point. A massive supercell thunderstorm along the weather front produces large, damaging hail and what is later designated as an EF5 tornado, with winds in excess of 200 mph.
The most recent tornado of this size as designated by the National Weather Service was on May 20, 2013, when an EF5 struck Moore, Okla., killing 24 people, flattening neighborhoods and schools, and injuring more than 350 people.
This Texas tornado is much, much worse.
Video: An EF5 tornado in May 2013 flattened much of Moore, Okla.
Moving in the usual southwest to northeast direction, it creates a damage path about 1 mile wide and nearly 200 miles long, and directly strikes the Comanche Peak Nuclear Power Plant in Glen Rose, Texas, about 40 miles west of Fort Worth and 60 miles west of Dallas.
The power plant’s reactor was built to withstand winds up to 300 mph, but it can’t withstand what happens after the tornado throws around multiple gas-filled tanker trucks, which explode and kill numerous workers.
Debris fills the air as the powerful winds destroy much of the plant’s emergency equipment, making it impossible to maintain proper conditions and temperature within the reactor. The remaining power plant workers feverishly try to manually shut down the nuclear reactor before it melts down. They can’t.
When the reactor’s heat exceeds the ability of the plant’s processes to cool it down, radioactive gases begin to snake their way into the funnel stacks. The radioactive contamination is carried by the ferocious winds directly toward Dallas/Fort Worth.
Communication fails as area power lines go down, so it is difficult to warn the 7 million residents of the Metroplex, as Dallas/Fort Worth is known. Residents know the tornado has been sighted and try to prepare, but they don’t know that deadly airborne toxins are being carried toward them.
About 10,000 homes and 700 commercial structures in the direct path of the tornado are completely destroyed and another 35,000 suffer damage, according to a model built by RMS. Roofs are ripped off apartment houses and multi-family dwellings. Vehicles are tossed around like toys, and with the storm striking at rush hour, workers on the roads are exposed to flying debris and high winds.
Even with residents sheltering in basements and safe rooms, fatalities reach into the 500-700 range — putting this event in line to be the deadliest tornado in U.S. history, after the Tri-State tornado of 1925, which killed 695 people in Missouri, Illinois and Indiana.
But it is the unseen radioactive contamination that ultimately makes the deadliest mark on the area.
Immediate fatalities from radiation poisoning number about two dozen, but as the contaminated rainfall seeps into the ground soil and water supply, the long-term health of the residents — and their descendants — is jeopardized. So, too, are the cattle and other agricultural products of Texas, which leads the nation in the number of ranches and farms it holds.
Chernobyl and Fukushima are the only events of a similar nature, even though the United States has seen its own recent near misses.
The radioactivity causes large swaths of area to be cordoned off, making it difficult to repair transmission and power lines as well as homes and businesses.
“The hard truth is that many businesses will close and many people will move from the area,” said Todd Macumber, president of international risk services, Hub International.
Chernobyl and Fukushima are the only events of a similar nature, even though the United States has seen its own recent near misses.
In 2011, a tornado knocked out power to the Browns Ferry Nuclear Power Plant near Huntsville, Ala., requiring the shut down of its three reactors. The plant fired up backup diesel generators until power was restored. The storm also disabled the plant’s sirens, which are needed to warn nearby residents in a crisis.
That same year, a tornado barely missed damaging 2.5 million pounds of radioactive waste at the Surrey Power Station in southeastern Virginia, although it touched down in the plant’s electrical switchyard and disabled power to the cooling pumps. The operators needed to activate backup diesel generators to run the two reactors until power was restored.
Twenty-eight years after the radioactive disaster at Chernobyl in 1986, some parts of the Ukraine remain a toxic wasteland. And in Japan, an initial evacuation area of about 2 miles surrounding the Fukushima Daiichi Nuclear Power Plant was soon widened to about 12.5 miles.
Now, three years after three of Fukushima’s six reactors melted down, the area is still unlivable and 40 miles away, diagnoses in children of thyroid cancer, which is caused by radiation poisoning, are skyrocketing, according to some reports.
Nearly 16,000 people died in the 2011 earthquake and tsunami that struck Japan, causing the meltdown. About 160,000 people were evacuated, 130,000 buildings were destroyed and $210 billion in damage was sustained.
The Texas scenario has a lot of variables, said Matthew Nielsen, director of Americas product management at RMS, who created the model for our Comanche Peak Nuclear Power Plant black swan scenario.
The likelihood of a tornado, with thunderstorms and hail, causing massive structural damage is about 1 in 200 years, he said. Such an event would result in at least $20 billion in insured losses and uninsured losses of about the same amount.
But a tornado following the exact path as this scenario — striking the power plant and heading into the Dallas/Fort Worth Metroplex — has a much, much smaller chance — about 1 in 10,000 years.
“Given the fact that tornadoes are very rare, it isn’t something that I think people should be screaming and running around frantically about,” Nielsen said. “But it’s certainly something that could happen.”
As for losses due to the radiation? “There’s not a lot of historical data points that we can confidently say that that portion would be x or y billion,” he said.
Any rebuilding will be delayed by the threat posed by radioactive contamination, which may spread over a large area via the thunderstorms and storm water runoff.
From an insurance perspective, all personal and commercial lines of insurance have a nuclear energy hazard exclusion. American Nuclear Insurers (ANI) provides third-party liability insurance for all power reactors in the United States.
“We are responsible for the insurance coverage protecting the operators from claims alleging bodily injury or property damage offsite from [radioactive] materials,” said Michael Cass, vice president and general counsel at ANI, a joint underwriting association with 20 insurance company members.
The ANI was created under the Price-Anderson Act of 1957 and provides a primary policy limit of $375 million for claims due to offsite consequences from the release of radioactive materials from the 100 operating nuclear power plants in the United States. It also covers some plants that are shut down or in the process of being decommissioned, he said.
The ANI also covers costs related to emergency response and evacuation, including food, clothing and shelter, he said.
The joint underwriting association also administers an additional excess layer of about $13.2 billion, the costs of which would be borne by the power plant operators, and would be apportioned equally among them.
For any claims above $13.6 billion (which includes both the primary and excess layers), the Price-Anderson Act requires the U.S. Congress to “take steps to come up with a scheme to provide full compensation to the public and to continue claims payments,” Cass said.
“They could assess or tax the energy industry in some fashion or form. It doesn’t say that specifically, but that is what is alluded to.”
None of the insurance companies that are ANI members would be adversely affected if such a black swan event were to occur, he said.
“There would be a loss reserve recorded on their balance sheets, per participation in our pool, but we do have funds set aside for these catastrophic events where we wouldn’t be requiring any additional funds,” Cass said.
Damage to the power plant itself would be covered by Nuclear Electric Insurance Ltd., which insures electric utilities and energy companies in the United States. Current limits are $1.5 billion per site on the primary program, and up to $1.5 billion per site in its excess program.
Allan Koenig, vice president, corporate communications at Energy Future Holdings, which operates Comanche Peak, said the plant is robustly protected. It has two independent systems that can provide off-site power as well as backup diesel generators, to allow the units to be safety shut down in the event of natural catastrophes.
He also noted the plant has safety shields for fuel storage casks, a 45-inch-thick steel-reinforced concrete containment building wall, and fire protection redundancies.
As for the affected businesses and homeowners, they may be left in a swirling vortex of coverage confusion. The situation would have the flavor of what happened after Superstorm Sandy, when coverage often depended on whether damage was caused by flooding or wind surge.
The question for Texas insureds would be whether the damage was caused by the tornado or by the radioactivity.
“It’s an incredibly complex question and a complex issue that is really only solvable and resolvable if and when the incident occurs,” said John Butler, vice president of the environmental practice at Hub International.
“What it boils down to is the chicken and the egg scenario,” he said. “What came first? Either event has the ability on its own to create a total loss.”
Resilience and redundancy should be the key takeaways from this, said Peter Boynton, founding co-director of the Kostas Research Institute for Homeland Security at Northeastern University in suburban Boston.
“If we can retain a percentage of the critical function of whatever system we are talking about, the difference between 0 percent and 30 percent when the bad thing happens is huge.” — Peter Boynton, founding co-director of the Kostas Research Institute for Homeland Security, Northeastern University
Instead of viewing catastrophic events from an emergency management perspective, where the discussion revolves around what was — or was not — managed well, it’s better to look at the way design can lead to “continuity of function,” he said.
When Boynton was head of emergency management for the state of Connecticut, he managed the statewide response in 2011 to Hurricane Irene, which knocked out 70 percent of the state’s electric grid, leaving residents unable to access many gas stations, ATMs and grocery stores.
If the state had designed a “resiliency approach” prior to the event, it could have built in a pre-determined amount of redundancy into the system so that, say, an additional 20 percent or 30 percent of the grid remained viable.
“If we can retain a percentage of the critical function of whatever system we are talking about, the difference between 0 percent and 30 percent when the bad thing happens is huge,” Boynton said.
In the Texas scenario, if the crisis planning included a redundancy for warning nearby residents even when the power and communication lines failed — such as by using satellites to create a minimal level of continuity — the amount of death and destruction could have been lessened.
“Otherwise, we really are setting ourselves up for an impossible discussion,” he said. “You can’t just pick up these pieces at the moment of crisis. You have to understand how system design can play a role.”
Analyzing such a black swan scenario is a useful exercise, said Justin VanOpdorp, manager, quantitative analysis, at Lockton.
“Can this actually happen? Yes. Will it? Maybe not,” he said. “I think what it does is, it helps to think through it just to be prepared for those situations when they do arise.”
Additional 2014 black swan stories:
When the 8.5 magnitude earthquake hits, sea water will devastate much of Los Angeles and San Francisco, and a million destroyed homes will create a failed mortgage and public sector revenue tsunami.
A double dose of ice storms batter the Eastern seaboard, plunging 50 million people and three million businesses into a polar vortex of darkness and desperation.
7 Emerging Technology Risks
A Renaissance In U.S. Energy
America’s energy resurgence is one of the biggest economic game-changers in modern global history. Current technologies are extracting more oil and gas from shale, oil sands and beneath the ocean floor.
Domestic manufacturers once clamoring for more affordable fuels now have them. Breaking from its past role as a hungry energy importer, the U.S. is moving toward potentially becoming a major energy exporter.
“As the surge in domestic energy production becomes a game-changer, it’s time to change the game when it comes to both midstream and downstream energy risk management and risk transfer,” said Rob Rokicki, a New York-based senior vice president with Liberty International Underwriters (LIU) with 25 years of experience underwriting energy property risks around the globe.
Given the domino effect, whereby critical issues impact each other, today’s businesses and insurers can no longer look at challenges in isolation one issue at a time. A holistic, collaborative and integrated approach to minimizing risk and improving outcomes is called for instead.
Aging Infrastructure, Aging Personnel
The irony of the domestic energy surge is that just as the industry is poised to capitalize on the bonanza, its infrastructure is in serious need of improvement. Ten years ago, the domestic refining industry was declining, with much of the industry moving overseas. That decline was exacerbated by the Great Recession, meaning even less investment went into the domestic energy infrastructure, which is now facing a sudden upsurge in the volume of gas and oil it’s being called on to handle and process.
“We are in a renaissance for energy’s midstream and downstream business leading us to a critical point that no one predicted,” Rokicki said. “Plants that were once stranded assets have become diamonds based on their location. Plus, there was not a lot of new talent coming into the industry during that fallow period.”
In fact, according to a 2014 Manpower Inc. study, an aging workforce along with a lack of new talent and skills coming in is one of the largest threats facing the energy sector today. Other estimates show that during the next decade, approximately 50 percent of those working in the energy industry will be retiring. “So risk managers can now add concerns about an aging workforce to concerns about the aging infrastructure,” he said.
Increasing Frequency of Severity
Current financial factors have also contributed to a marked increase in frequency of severity losses in both the midstream and downstream energy sector. The costs associated with upgrades, debottlenecking and replacement of equipment, have increased significantly,” Rokicki said. For example, a small loss 10 years ago in the $1 million to $5 million ranges, is now increasing rapidly and could readily develop into a $20 million to $30 million loss.
Man-made disasters, such as fires and explosions that are linked to aging infrastructure and the decrease in experienced staff due to the aging workforce, play a big part. The location of energy midstream and downstream facilities has added to the underwriting risk.
“When you look at energy plants, they tend to be located around rivers, near ports, or near a harbor. These assets are susceptible to flood and storm surge exposure from a natural catastrophe standpoint. We are seeing greater concentrations of assets located in areas that are highly exposed to natural catastrophe perils,” Rokicki explained.
“A hurricane thirty years ago would affect fewer installations then a storm does today. This increases aggregation and the magnitude for potential loss.”
On its own, the domestic energy bonanza presents complex risk management challenges.
However, gradual changes to insurance coverage for both midstream and downstream energy have complicated the situation further. Broadening coverage over the decades by downstream energy carriers has led to greater uncertainty in adjusting claims.
A combination of the downturn in domestic energy production, the recession and soft insurance market cycles meant greatly increased competition from carriers and resulted in the writing of untested policy language.
In effect, the industry went from an environment of tested policy language and structure to vague and ambiguous policy language.
Keep in mind that no one carrier has the capacity to underwrite a $3 billion oil refinery. Each insurance program has many carriers that subscribe and share the risk, with each carrier potentially participating on differential terms.
“Achieving clarity in the policy language is getting very complicated and potentially detrimental,” Rokicki said.
Back to Basics
Has the time come for a reset?
Rokicki proposes getting back to basics with both midstream and downstream energy risk management and risk transfer.
He recommends that the insured, the broker, and the carrier’s underwriter, engineer and claims executive sit down and make sure they are all on the same page about coverage terms and conditions.
It’s something the industry used to do and got away from, but needs to get back to.
“Having a claims person involved with policy wording before a loss is of the utmost importance,” Rokicki said, “because that claims executive can best explain to the insured what they can expect from policy coverage prior to any loss, eliminating the frustration of interpreting today’s policy wording.”
As well, having an engineer and underwriter working on the team with dual accountability and responsibility can be invaluable, often leading to innovative coverage solutions for clients as a result of close collaboration.
According to Rokicki, the best time to have this collaborative discussion is at the mid-point in a policy year. For a property policy that runs from July 1 through June 30, for example, the meeting should happen in December or January. If underwriters try to discuss policy-wording concerns during the renewal period on their own, the process tends to get overshadowed by the negotiations centered around premiums.
After a loss occurs is not the best time to find out everyone was thinking differently about the coverage,” he said.
Changes in both the energy and insurance markets require a new approach to minimizing risk. A more holistic, less siloed approach is called for in today’s climate. Carriers need to conduct more complex analysis across multiple measures and have in-depth conversations with brokers and insureds to create a better understanding and collectively develop the best solutions. LIU’s integrated business approach utilizing underwriters, engineers and claims executives provides a solid platform for realizing success in this new and ever-changing energy environment.
This article was produced by the R&I Brand Studio, a unit of the advertising department of Risk & Insurance, in collaboration with Liberty International Underwriters. The editorial staff of Risk & Insurance had no role in its preparation.