In the U.S. in the mid-1940s, a small group of scientists learned to split uranium atoms. They applied their newfound knowledge to making and deploying nuclear bombs in Japan. When World War II ended, other scientists wanted to split uranium atoms to generate electrical power for U.S. military operations and public utilities. They wanted to make nuclear reactors to produce plutonium, the basic material necessary for thermonuclear bombs. (Producing plutonium demands lots of electrical power.)
The destruction caused by the USA’s bombing of Hiroshima and Nagasaki continues to traumatize the American public. Quietly, with a cover story called “Atoms for Peace,” the U.S. government began subsidizing nuclear power plants, each took about a decade to build. The “military-industrial complex” named by President Eisenhower began to thrive.
On a beach in San Clemente, California, 40 miles (64 km) north of San Diego, the San Onofre nuclear power plant’s first reactor began operating in 1973. Two more units opened in 1983 and 1984. The plant eventually provided electricity for 1.4 million homes.
“SOS: The San Onofre Syndrome: Nuclear Power’s Legacy,” is an extraordinary documentary by Mary Beth Brangan, James Heddle and Morgan Peterson. It chronicles nearby residents’ discovery, after the 2011 Fukishima nuclear power plant’s triple meltdown, of the San Onofre reactor’s vulnerabilities. The facility lies in a seismic fault zone that could also see earthquakes and tsunamis. It sits on a U.S. Marine base. In the event of war, this makes San Onofre a “legitimate” geostrategic target. The power plant’s visibility (from land, sea and air) makes it vulnerable to terrorist attacks. Employees who reported radiation leaks and other problems at the plant were fired. Radioactive waste can last 500 million years, but the canisters that store San Onofre’s radioactive waste are designed to last only 20 years.
The film shows the regional and international efforts that shut down San Onofre in 2012. It shows the debate that continues about the safest and most ethical way to deal with the reactor’s radioactive waste. The filmmakers call their documentary “San Onofre Syndrome” because every nuclear reactor generates radioactive waste. Worldwide, 436 nuclear reactors operate in 32 countries. The U.S. operates 54 nuclear power plants and 92 nuclear reactors. The Wind blows east. If a meltdown occurred at San Onofre—or California’s two other nuclear power facilities—the entire country (and eventually Europe, Asia and the Pacific) could receive radioactive fallout. Indeed, the whole planet has been contaminated by radioactive fallout from Chernobyl, Fukishima and hundreds of thermonuclear bomb tests conducted by France, the U.K., Russia, China, India, Pakistan, Israel and North Korea.
A parade of courage
I’ve seen “SOS” three times, and each time, I’m stunned by how much I don’t know about nuclear power and nuclear waste. And yet, the film genuinely encourages me in my humanness. Hearing Naoto Kan, Prime Minister of Japan during the Fukushima meltdown, state that he’s changed his mind about nuclear power 180 degrees dazzled me. So did S. David Freeman (who directed utilities in Tennessee, Los Angeles and Sacramento—and who closed down reactors) when he said, “We’ve got to kill the reactors before they kill us.” The film shows one ordinary person after another responding with integrity to this insane situation that we did not create. Generously, these people share what they’ve learned, name questions and options—and spread courage.
Nuclear waste basics
Watching “San Onofre Syndrome”—and talking about it—has taught me:
Building one nuclear power facility requires enormous amounts of cement and steel. Manufacturing cement and steel demands tremendous amounts of energy and generates tremendous carbon emissions. Mining and refining uranium ore to make reactor fuel also require large amounts of energy. We therefore cannot call nuclear power “carbon-neutral” or “zero-emitting.”
During routine operations, cooling a nuclear reactor requires millions of gallons of water, daily. Along with the building’s cement structure, this water becomes radioactive.
We do not know how to dispose of radioactive waste safely. Students of nuclear engineering are not required to study disposal of radioactive waste: such classes are elective. No underwriter will insure a nuclear reactor. No underwriter will ensure homeowners or renters for the impacts of nuclear fallout. Governments subsidize nuclear reactors. Private investors are reluctant to fund them since they are not economically viable.
The biosphere’s waste, the technosphere’s waste
In the 25 years that my husband and I have given our kitchen scraps to worms, our compost piles have volunteered kabocha squash, cilantro, an apricot tree now ten feet (three meters) tall—and nutrient-dense soil that we regularly return to vegetable beds. Compost is the biosphere’s generosity in action, the beauty of life emerging from decay. We eat, we poop, we die, we decompose…and cycle toward the next generation.
Everything in the technosphere produces waste and dies, too. But it does not biodegrade. Computers, smartphones, televisions, solar panels, batteries, vehicles and other electronics generate hazardous waste. Nuclear reactors’ radioactive waste can destroy basic cellular processes and the ecosystems we need for life to continue.
I consider “SOS: The San Onofre Syndrome” a forum. It informs viewers about nuclear reactors and radioactive waste—and inspires discussion about how to live with peace between our ears during radioactive times.
What’s your part? Start by learning about the nuclear reactors near you. Connect with local watchdogs—and even one person open to naming questions and discussing their part.