‘Three Seas’ countries are looking to harness next-gen nuclear energy

By Nathan Alan-Lee, Doctoral researcher, UCL School of Slavonic and East European Studies

The opinions expressed in this article are those of the author and do not represent in any way the editorial position of Euronews.

Small modular nuclear reactors and their many potential applications have come to reflect the vital role that innovation and technology can have at the nexus of energy security and decarbonisation, Nathan Alan-Lee writes.

Less than two years after the crisis in Ukraine caused massive disruption to the global energy system, Europe continues to feel the fallout of the subsequent energy crisis and is scrambling to replace a historic dependence on Russian fossil fuels.

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Yet, even as the crisis continues to bring instability and insecurity, lasting solutions – which have the potential to not only address immediate challenges but also provide a long-term basis for sustainable energy — are fast emerging.

This year’s Three Seas Initiative (3SI) Summit, held on 6 September in Bucharest, has served as a landmark moment in the development of such vital solutions. 

Broadly speaking, 3SI is tasked with further developing and integrating infrastructure within the bloc of countries between the Baltic, Black and Adriatic seas. 

Recently, the work of 3SI has been critical in addressing energy security concerns in the region and forging new avenues for collaboration.

What exactly is a small modular reactor?

This year’s summit emphasised the key role which next-generation nuclear power will play in the region’s energy transition, and at the same time, proposed a roadmap for wide-scale access and adoption. 

One technology which was particularly celebrated was the small modular reactor (SMR), a forward-looking innovation which has been drawing attention as an option in reducing carbon emissions and powering the energy transition.

What makes an SMR different from other reactors?

Unlike traditional nuclear reactors, SMRs are able to be deployed more dynamically, with less cost and time investment. As their name “SMR” would suggest, they are much smaller than traditional reactors and can be more flexible in deployment. 

These reactors are also “modular,” with components being factory assembled and ready for installation on site. 

Overall, the function of SMRs in the power grid differs from that of traditional reactors, as they produce far less than standard nuclear reactors. However, this only creates new use cases for nuclear energy and offers new routes for achieving energy security.

Reducing carbon dependence a big plus

The technology’s sweeping potential was a point of focus during the Three Seas Summit, especially as it relates to coal-to-SMR conversion. The US-led Project Phoenix, which looks to facilitate this conversion, announced that Poland, the Czech Republic and Slovakia “will receive support for coal-to-SMR feasibility studies.” 

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This will aid domestic SMR initiatives, providing valuable guidance and support to master SMR technology. This program will be a good way to kickstart and boost the adoption of nuclear energy with the goal of sustainability and reduced carbon dependence.

On the global stage, SMRs and by extension nuclear, are also becoming intriguing for complementing other zero-carbon energy sources. 

One use case which has been garnering attention in the past year is the electrolytic and potentially thermochemical production of “green” hydrogen. 

The electrical and thermal outputs of nuclear power can substitute emitting fuels in this production process, and SMR companies like the UK’s Rolls-Royce and NuScale in the US are already considering ways to integrate their reactors in electrolytic Hydrogen production. 

In a similar way nuclear heat emissions are being explored as a means of producing ammonia which acts as a transport medium of hydrogen. 

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Nuclear energy’s capacity to integrate with other zero-carbon energy systems is gaining wide traction. 

At the upcoming ADIPEC conference, one of the most influential in global energy strategy, nuclear integration will be highlighted alongside the growing role of Hydrogen and Ammonia.

The promise does come with challenges

Despite the promise of SMRs, there are key challenges to successful deployment in the 3SI bloc countries, most of which relate to the cost and the ultimate return on investment calculation. 

The estimated price of electricity produced by the NuScale SMR, for example, increased this year to $89/MWh (€83.5), up from $58/MWh (€54.5); this reflects price inflation in the cost of producing reactor components. 

This price variability, and the fact that SMRs have yet to be proven in operation, have raised concerns about their overall viability.

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In response to this, 3SI countries have looked to foreign investment. 

Earlier this year, the US Export-Import Bank and US International Development Finance Corporation, issued “letters of interest” to invest up to $4 billion (€3.75bn) in Poland’s SMR development projects. Similar letters have also been offered for Romanian SMR development. 

This funding would be a massive boost for SMR and nuclear development in the region, while at the same time strengthening transatlantic ties and cooperation.

Crucial years ahead

The run-up to 2030 will be a crucial period, for both the decarbonisation effort and also for nuclear energy as the first SMRs look to begin operations in Europe. 

The 3SI countries are positioned to be a lynchpin in this process, operating at the cutting edge of nuclear development, while looking to guarantee the region’s energy security for years to come. 

SMRs and their many potential applications have come to reflect the vital role that innovation and technology can have at the nexus of energy security and decarbonisation.

Nathan Alan-Lee is a doctoral researcher at the UCL School of Slavonic and East European Studies and a senior analyst at London Politica covering Poland and Central and Eastern Europe.

At Euronews, we believe all views matter. Contact us at [email protected] to send pitches or submissions and be part of the conversation.

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Chernobyl anniversary: What should you do in nuclear accident?

Few things haunt our modern nightmares as terrifyingly as nuclear disasters – and though it began a full 37 years ago today, the Chernobyl catastrophe still casts a long shadow over the debate about whether nuclear power can ever be safe.

The threat of another nuclear accident in Europe was driven home last year when Russian soldiers occupied the “exclusion zone” around the Chernobyl plant for more than five weeks, possibly suffering from radiation poisoning. 

And the world is also anxiously watching Ukraine’s Zaporizhzhia nuclear plant, which has only narrowly escaped heavy bombardment by Russian forces. 

Events in Ukraine aside, different countries take different views on the future of nuclear power. Germany committed to shutting its nuclear grid down entirely after the 2011 Fukushima disaster, and completed the process this spring, but millions of Europeans today live within striking distance of at least one nuclear power plant. 

Whenever the spectre of Chernobyl is revived – whether by war or by a critically acclaimedtelevision series – people invevitably start asking themselves what will happen if something goes wrong.

Local advice in Europe

Residents near the Royal Navy base in Portsmouth, England, have received detailed advice from the local council about what to do in the event of a nuclear accident. 

They’re told that while any nuclear accident would likely be small and contained within the base — and in no way resemble a nuclear bomb explosion — people could still be exposed to radioactive particles or have contact with contaminated surfaces, food or drinking water. 

“The main way to stay safe is to stay inside with your windows and doors shut, then none of the radioactive particles can reach you,” the local council advises. 

“Close all your doors and windows to reduce the risk of contamination entering the building. Switch off fans, ventilation equipment or appliances such as central heating boilers and gas fires, which draw air from outside,” the council says. 

People are also encouraged to listen to the radio or check online for the latest news, but to try and not use mobile phones in case all the calls overload the network. 

In France, the government’s preparedness instructions for a nuclear accident note that they’re ranked on a scale from 1 to 7, with seven being equal to Chernobyl. 

There are 56 nuclear power stations in France, and in the event of an accident the government advises people to have an emergency kit prepared with copies of important papers and any medicines; along with clothes, food and water. 

People are told to take shelter indoors — with the windows closed — and take iodine tablets to counteract any radiation poisoning. 

Meanwhile in Spain, where seven nuclear power plants generate around 20% of the Iberian country’s energy, the government has produced advice in a dozen different languages in case of an emergency. 

“The best way to stay safe in any radiation emergency is to get inside, stay inside and stay tuned. Putting material between you and the radiation provides protection while you tune in for instructions from responders,” Spanish authorities advise. 

And in Sweden, with six reactors in three nuclear power plants, authorities have produced advice which tells people that “Preparedness means being prepared for the unexpected… and being able to minimise the consequences of an accident.”

The instructions say to keep a good distance from the source of the radiation, be in the contaminated area for as little time as possible, a to keep a shield between yourself and the radiation source, for example, by being indoors. 

Older nuclear plants pose more risks

Fortunately, it’s quite unlikely that Europeans will find themselves exposed to radiation after an accident at a power station — although not totally impossible.  

What made the 1986 explosion at Chernobyl so disastrous was the combination of poor design, subpar safety practices, a mismanaged test and the confusion of information after the event, and most of these factors are not present when it comes to the modern nuclear energy sector in Europe.

Still, that hasn’t stopped Europeans from trying to work out what might happen to them if a disaster were to occur somewhere on the continent.

Scientists at Geneva’s Institut Biosphère looked in detail at the damage that might result from an accident at one of Switzerland’s five nuclear plants, among them the oldest still-operating reactor in the world, Benzau I. 

According to their findings, a Swiss meltdown could potentially affect 16-24 million Europeans, depending on the weather, with thousands of radiation-related deaths beyond Switzerland’s borders.

Some countries are already worrying about the threat of nuclear spillage from their neighbours, and indeed, dealing with it. Britain’s oldest reactor, the now-decommissioned Sellafield, has been a running sore for decades: a fire in 1957 sent radioactive particles into the air to be detected in Scandinavia and Germany; waste was dumped and inadvertently discharged into the Irish Sea on more than one occasion.

Today, the incredibly intricate cleanup operation that remains underway at the site costs the British state as much as €2.25 billion a year, and carries significant risks that further radioactive waste will be released into seawater that Ireland, Iceland and northwest Europe in general will have to cope with.

When the Fukushima Daiichi nuclear plant in Japan was damaged by a tsunami in 2021, the Japanese authorities evacuated everyone in a 20km radius around it, meaning 109,000 people were displaced while tens of thousands more left nearby areas of their own volition.

But when British researchers William Nuttall and Philip Thomas ran an experiment to see what would be necessary if a similar disaster happened in southern England, they calculated that the evacuation would only need to involve a nearby village. 

Chernobyl’s design and the neglect of safety protocols were the reason for the massive radiation release; more modern reactors, which are built with containment vessels, do not generally pose the same level of risk.

You may not be asked — or forced — to leave anyway. As the researchers pointed out, the upheaval of long-term mass evacuation can present public health problems in itself.

“The World Health Organization documented the upheaval of the Chernobyl disaster among the relocated community and found a legacy of depression and alcoholism,” they wrote for The Conversation. “Across the population, a rise in suicide and substance abuse can shorten evacuees’ lives far more than might have been lost to radiation in their old homes. Similar evidence is starting to emerge from Fukushima, especially for male suicide.”

For now, the overall nuclear trend in Europe is unclear, but the sector is not going away. With decommissioning on hold in various places, countries such as Finland are switching on new reactors to plug the energy gap left by Russia’s energy politics – meaning their citizens will be living with reactors designed to run for a half-century or more.

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