In 2010, Nick Clegg made a fateful intervention against nuclear power. On the eve of becoming deputy prime minister, the then-Lib Dem claimed that building new reactors would take too long: they wouldn’t “come on stream” until about 2021 or 2022. Fast-forward to the autumn of 2022, and Clegg’s remarks were being ridiculed as evidence of Britain’s myopic governing class. Russia’s invasion of Ukraine had sent the cost of imported electricity through the roof — a problem that hasn’t gone away, and could soon spark outages right across the country. There is now a growing consensus that Clegg’s stance was not just wrong, but irresponsible. Given its potential to provide large volumes of clean, reliable electricity, nuclear is an obvious answer to Britain’s problem of energy security.
Yet Clegg’s critics never seem to mention the other arguments he made against nuclear energy: that new reactors tend to suffer from spiralling costs, and that “no one has got a workable answer to the dilemma of what you do with nuclear waste.” This points to a contradiction amid the new pro-nuclear fervour. While supporters castigate the British state for being negligent, slow, wasteful, and generally incompetent in its energy strategy, they also demand that this same state commit to a technology that requires high levels of competence over a long period of time. The rewards could be great, but the stakes are high, and our institutions hardly inspire confidence.
That the UK needs to drastically improve its energy situation is beyond doubt. Like many in the anti-nuclear camp, Clegg insisted that wind, solar and tidal power were the UK’s best path to energy independence. That is not exactly how things panned out. While Britain has enthusiastically cut down its production of fossil fuel energy, renewables have yet to fill the gap: electricity imports remain at a record high. It should be noted that a strategy based on renewables actually strengthens the case for nuclear. Not only are reactors low-carbon, they also generate electricity continuously, crucial when our weather can be so capricious.
Meanwhile, demand for electricity is growing rapidly. The government estimates that it will be 50% higher by 2035, not least because decarbonising the economy means switching to electricity wherever possible. According to MIT, it takes 800 wind turbines, or 8.5 million solar panels, to match the energy output of an average nuclear reactor.
Little wonder, then, that recent years have seen renewed interest in nuclear power. After decades in the environmental wilderness, climate conferences are now signing countries up to a goal of tripling the planet’s nuclear capacity. Ministers are listening: over 60 nuclear reactors are currently under construction worldwide. That’s especially true in China, which really does take energy independence seriously, and plans to build no fewer than 90 over the next decade. Russia, for its part, wants 30 new reactors by 2050. Beijing and Moscow are both exporting their nuclear programmes to other countries, with the latter building reactors across Eurasia and striking deals in Africa. As for the United States, Warren Buffet, Bill Gates, Ken Griffin and Peter Thiel are among the big-name investors who now have a stake in nuclear.
Much of the hype is focused on new technology. Some reactors use “pebbles” filled with coated uranium particles instead of the traditional rods. Evidence from China suggests that this can avert meltdowns like the 2011 Fukushima disaster. In Jiangsu and Texas, meanwhile, new reactors won’t just make electricity, but also provide factories with heat energy. But the greatest excitement surrounds Small Modular Reactors. As the name suggests, SMRs aim to alleviate the biggest obstacles to nuclear power: massive upfront costs and long construction times. Though they will produce about a third of the electricity of an average reactor, optimists think they could one day be assembled in two years at a cost of around $1 billion each.
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SubscribeI was one peripherally involved in a proposed project to bury nuclear waste in deep wells in Caithness. My main memory was just how small the canisters of waste were, even with all their layers of protection. Hopefully there are better sources than the Guardian to help us assess just how serious the risks are. It could be that they are more political than physical.
I’m sure somebody can correct me, but I was once told that all the nuclear waste America has ever produced could just about fit inside Wembley Stadium. No idea if it’s true or not
Wouldn’t it ruin the pitch?
‘… EDF, the French state-owned energy company, grumbles that British planners have demanded over 7,000 modifications to its reactor at Hinkley Point C, even though the design is already operational in France and Finland….’
That’s rich. Olkiluoto was about 15 years late and vastly overbudget; Flamanville roughly ditto, and both closed down for modification/maintenance almost as soon as they were finally ‘operational’.
The EPR design of these, Hinkley and Sizewell C has been declared ‘too complex’ for further commissioning by, er, EDF, who are ruling out any more, anywhere.
The financing deals for Hinkley and SZC (if it gets one) are beyond ludicrous from the consumers’ point of view, and the UK govt won’t even reveal the VFM basis (ha ha ha) on which they have plunged a few £bn into SZC to keep alive the illusion that it will provide any affordable energy much before 2045.
And the magic SMRs that will supplant these lumbering cash-wasters are still grinding through ONR design certification schemes, not straining at the leash to start delivering anything but promises backed by government subsidy. No free lunches after 25 years of government inaction and timidity, alas.
Unfortunately, so true, and so predictable.
I’m sure it’s because Intelligence is believed to be a valid substitute for knowledge and experience, especially when it comes to STEM subjects, and an understanding of Business and Markets.
Surely it’s only a matter of time before we start to employ some of Mr Musks technological ingenuity to get our nuclear waste safely in to space – then into the sun.
Nuclear has not been understood by those with political influence, for many years, probably because there are so few Engineers and Scientists with Whitehall and Westminster.
Nuclear Engineering, in fact, all Engineering, requires financial stability: canceling and restarting programmes, redefining project goals, and panicking about ‘Green Revelations’ has resulted in a dysfunctional industry, without any idea what is possible. The same could be said for many infrastructure projects.
LFTRs, by removing already radiated fuel from the reactor, can reduce the amount of very long lived, dangerous, radioactive isotopes.
It’s not that this statement is the answer to all our problems, it’s that most of those in influential positions within the political bubble have no understanding to follow the technical arguments involved in deciding what possibilities lay ahead.
It’s been obvious for 30 years (and people have been pointing it out for that length of time), that switching energy to electricity required at least a trebling of electricity production in order to absorb the energy requirements of space heating and transport.
It’s also been 100% obvious in that time period that solar and renewables do not deliver at the massive scale required, in the rapid timescale required. After 30 years we still only have about 30% of electricity (not all energy) from renewable sources, and only a portion of that is solar and wind. We’re also discovering that, instead of being the promised cheap electricity, it’s hugely more expensive than promised, requiring huge subsidies, complex financial contracts and guaranteed income – someone is making a fortune off this stuff.
In 30 years, if we’d prioritised nuclear power as a National Strategic Plan under Parliamentary prerogative, and thereby liberated the process from the onerous planning and environmental swamp, it would have been possible to build more rapidly, and therefore more cheaply, and in larger numbers. All that money spent on renewables would have gone towards cheap, abundant electricity – giving us low-cost energy to underpin the economy. Remember we knew this stuff 30 years ago, but instead environmental NGOs went for the low-tech answer, and worse, ended up forcing Germany to close its nuclear power plants, probably the biggest climate change crime ever (and they’re trying to force France to close their plants…).
We can still go nuclear. In 30 years, renewables only will be only marginally further ahead from now, as replacement and maintenance become a factor. And we would need all the renewables installed in the past 30 years, and then treble it, just to get to 100% electricity production at levels we have now. So instead, just go for large scale, mass production of nuclear power. If it’s really a climate emergency, then nuclear waste is a proven, manageable, relatively small-scale problem. And if it is an emergency, the thing to do it to build stuff you know works, not hope on some dream of a possible new technology in the future.
F*ck me, this is a depressing time to be British