Nuclear waste storage plans in the news

PrefaceWith world peak oil of conventional likely to have happened in 2008 (90% of our oil) and all oil, including conventional in 2018, there’s not much time left to clean up nuclear wastes to keep future generations for the next million years safe and free of suffering.  Since heavy-duty manufacturing and transportation can’t run on electricity (Friedemann 2021 Life After Fossil Fuels: A Reality Check on Alternative Energy, Friedemann 2016 When Trucks Stop Running: Energy and the Future of Transportation), there’s no point in building nuclear power plants, which only generate electricity and not enough heat for industry (not that you could move all the factories in the world next to nuclear power plants…).  Fossil fuels are also essential for the fertilizers that keep 4 billion of us alive, heating of homes and buildings, and the half million products made out of petroleum. Nuclear power does nothing to contribute to any of these essential services that keep civilization alive.  We’re leaving future generations a polluted and climate-changed world, let’s not add radioactivity for a million years to our sins.

Alice Friedemann  www.energyskeptic.com  Author of Life After Fossil Fuels: A Reality Check on Alternative Energy; When Trucks Stop Running: Energy and the Future of Transportation”, Barriers to Making Algal Biofuels, & “Crunch! Whole Grain Artisan Chips and Crackers”.  Women in ecology  Podcasts: WGBH, Jore, Planet: Critical, Crazy Town, Collapse Chronicles, Derrick Jensen, Practical Prepping, Kunstler 253 &278, Peak Prosperity,  Index of best energyskeptic posts

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Clifford C (2022) Nuclear waste recycling startup wants to solve the ‘ball and chain’ problem holding back nuclear. CNBC. https://www.cnbc.com/2022/08/16/curio-led-by-energy-dept-veteran-aims-to-recycle-nuclear-waste.html

There are projects to deal with nuclear waste. One company, Curio, hopes to raise $5 billion for a pilot plant in 2035 that would reprocess nuclear waste to make it less radioactive, since there’s enough in it to harm humans for a million years. Today only 2,400 tons is reprocessed, 1700 in France and 400 in Russia. The U.S. alone generates 2,000 tonnes a year to the already huge 86,000 tonnes that exist.

Jessop C (2022) Another reason not to go down nuclear power road? New Scientist.

In Russia’s war against Ukraine, the Russian’s have shown great military ignorance in attacking reactors, severing grid connections, which threaten all with severe contamination worse than the Chernobyl disaster itself. If hit by hypersonic missiles that can outrun defense systems and breach all containment, any working reactor or waste facility instantly becomes a dirty bomb.

El-Showk S (2022) Final Resting Place. Science. https://www.science.org/doi/pdf/10.1126/science.ada1392

Finland has plans to bury nuclear wastes 430 meters (1,410 feet) underground. Nuclear power is over 40% of Finland’s electricity and has accumulated 2300 tons of waste (world-wide 263,000 tons of waste remain to be buried). Their success will be hard to replicate elsewhere, since it is largely due to the culture of Finland, where there is a high trust in institutions, community engagement, and a lack of state level opposition (such as found in Nevada U.S.).  But, I wonder, will this be started in time? Burial will start in 2024 or 2025 if all goes according to schedule.

Gallucci M (2020) A Glass Nightmare: Cleaning Up the Cold War’s Nuclear Legacy at Hanford. Scientists have spent three decades cleaning up the Hanford Site’s 177 giant tanks of radioactive sludge. And they’re just getting started. IEEE.

Scientists have spent three decades cleaning up the Hanford Site’s 177 giant tanks of radioactive sludge and it’s expected to take another 60 years and cost as much as $641 billion. It has a reputation for being the most polluted place in the Western Hemisphere and one of the world’s largest construction projects. And they’re just getting started.  This is where the plutonium for more than 60,000 nuclear weapons was created. Today there are 212 million liters of toxic waste, enough to fill 85 Olympic swimming pools. This 580 square mile site borders the Colulmbia river which provides drinking water for millions of people, a breeding ground for salmon, and water for agricultural crops. Scientists are trying to make the waste safe by vitrifying it into a kind of glass, but since the contents of each of the 177 tanks vary tremendously, so 177 ways of doing so need to be invented.

Grandoni D (2020) The Energy 202: No 2020 Democrat wants to store nuclear waste under Nevada’s Yucca Mountain. Washington Post.

Democratic candidates in Nevada continue to campaign on keeping Yucca closed. In 2020 candidates Sanders, Warren, and Klobuchar backed a bill that would bar the federal government from moving the waste into Nevada without permission from the governor. Other candidates Bloomberg, Biden, Buttigieg, and Steyer also opposed Yucca mountain being used to store nuclear waste.  But none of them have a proposal for another site.

Pearce, F. 21 January 2015. Shocking state of world’s riskiest nuclear waste site. NewScientist.

An urgent clean-up of two of the world’s most dangerous radioactive waste stores will be delayed by at least five years, despite growing safety fears.  The waste is stored at the UK’s Sellafield nuclear reprocessing site, which holds radioactive waste dating back to the dawn of the nuclear age. An accident at the derelict site could release radioactive materials into the air over the UK and beyond.

Last week, the UK government sacked the private consortium running the £80-billion-programme to clean up Sellafield, and gave the job back to its own agency, the Nuclear Decommissioning Authority (NDA). The clean-up operation, scheduled to end by 2120, costs the government £1.9 billion a year.

The private consortium, Nuclear Management Partners, was meant to “bring in world-class expertise” and allow the government to “get to grips with the legacy after decades of inaction”, according to a 2008 statement by Mike O’Brien, energy minister at the time. But six years on, the privatization experiment has been abandoned.

The four ponds and silos contain hundreds of tons of highly radioactive material from more than 60 years of operations. The decaying structures are cracking, leaking waste into the soil, and are at risk of explosions from gases created by corrosion.

In an NDA business plan published last April, the emptying of the 100-metre Pile fuel storage pond, which holds used fuel and waste from the manufacture of the first UK nuclear bombs in the 1950s and 60s, was planned to be completed by 2025. But a timeline in a new draft plan circulated for consultation in December shows the job won’t be done until 2030. Likewise, the £750-million task of emptying the 21-metre-high Pile fuel cladding silo, which has been full since 1964, is now scheduled for completion in 2029, not 2024.

Confirming the change, an NDA spokesman told New Scientist: “Given the unique technical challenges and complexities of these plants, which were built with no thought to how they would be decommissioned… there will continue to be program uncertainties.

Sellafield was built on Cumbria’s coast in north-west England in the late 1940s to manufacture plutonium for the UK atomic bomb. The site also housed the world’s first commercial nuclear power station, and became a center for storing highly radioactive waste from reactors.

Most of the highly radioactive waste was dumped into ponds, each several times the size of an Olympic pool. Constantly circulating water kept the waste cool, but also created hundreds of cubic meters of sludge from the corrosion of the metal cladding surrounding the fuel rods.

As a result, the exact contents of the ponds are unclear, says Paul Howarth, managing director of the government-owned National Nuclear Laboratory at Sellafield. “We have to do a lot of R&D just to characterize the inventory, before we can work out how to retrieve the materials.

And the problem is just going to get worse. When plants are decommissioned in the future, waste will still be sent to Sellafield. The UK’s plants are mostly made of concrete, rather than steel, which makes them harder to dismantle. It also means they create about 30 times more radioactive material. And with a new nuclear plant about to be built at Hinkley Point in Somerset, the amount of radioactive waste headed for Sellafield may grow.

Another unique legacy is the 90,000 tons of radioactive graphite stored there, used as fuel cladding. Irradiated graphite accumulates energy known as Wigner energy, which caused the UK’s worst nuclear accident in 1957. Researchers are still unsure how to make it safe for disposal.

Dangerous Areas

  • Pile 1: one of the two original reactors built to support the UK atomic bomb project. It is where the country’s worst nuclear accident took place, when the reactor core caught fire in 1957. Once the fire was extinguished the core was sealed and it is considered best left alone for now.
  • Pile fuel storage pond: took in spent fuel from both the weapons reactors and energy reactors. The radioactive waste and sludge formed from the storage process sit in a deteriorating concrete structure filled with water. Removal of the sludge is under way. This pond has sat unused since the 1970s.
  • Pile fuel cladding silo: is jammed with 3200 cubic meters of aluminum cladding, which surrounds the fuel rods, much of it from 1950s weapons reactors. It has been sealed since the mid-1960s but corrosion means there is a risk that hydrogen will form, which could lead to explosions.
  • Magnox spent fuel storage pond: considered the most dangerous industrial building in Europe. The 150-metre-long open-air pond is visited by birds and cracks have caused radioactive material to leak into the soil. No one knows exactly what’s in there, but it may contain a tonne of plutonium.
  • Magnox swarf storage silo: considered the second most dangerous industrial building in Europe. It stores waste magnesium fuel cladding under water. Some sludge has leaked through cracks in the concrete, and there is a risk of explosion from hydrogen released by corrosion of storage vessels.
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