Socio Economic Studies

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EUROfusion Social and Economic Studies (SES) offer insights into how society perceives and engages with fusion and assesses fusion potential in a rapidly evolving global energy system.

The SES team provides scientific analyses for key stakeholders to support strategic planning towards fusion deployment. Read more on the EUROfusion Workprogramme on Socio Economic Studies.

Why?

As a stable, carbon-free energy source, nuclear fusion will contribute to combating climate change and enhancing sustainable energy systems. However, its commercialisation faces scientific, technological, social, and economic challenges, requiring interdisciplinary collaboration.

What?

SES answers questions like:

  • Will fusion come too late in a world moving towards renewables?
  • Will fusion be publicly accepted?

Read here some of the most frequently asked questions raised by the general public, collected and analyzed as part of our research at SES, along with our answers.

How?

Since 2001, EUROfusion has united researchers across physical sciences, engineering, economics, and socio-environmental studies to identify the conditions for integrating fusion into future energy markets. This interdisciplinary effort is key to ensuring fusion energy meets societal needs and economic realities.

Qualitative Methods

Based on a direct dialogue with citizens and stakeholder, to gather views, interpretations, concerns, doubts and expectations

Quantitative Methods

To gather quantitative evidence on societal acceptance at a broader national
and/or European level.

Complementary Studies

To address aspects not directly covered by the research on energy scenario

Economic Studies

Discover our mission

Assess the role of fusion and its potential in a rapidly evolving global energy system

Takeaways:

Social Studies

Discover our mission

Understand how European society perceives and engages with fusion technology

Takeaways:

Frequently asked questions:

No, even with widespread use of renewables, fusion will play a crucial role by providing reliable and continuous electricity. Fusion will complement variable sources like wind and solar, helping to stabilize the energy system.

It’s, in fact, quite likely that renewables will be the key actors of the future energy mix – mainly because of the public negative attitude towards nuclear fission and of the delays of carbon capture and storage development far behind expectations. The image of a World where solar and wind power are able to cover the whole global electricity needs is so fascinating that the challenges of the transition towards it along with the inherent drawbacks of this options too often fall into the background. A full renewable energy system, equipped with proper energy storage devices, can be realized provided deep changes of power system infrastructures and related costs are accepted. Integrating nuclear fusion in this picture would enhance the energy system reliability and quite likely reduce the overall cost of electricity.

Public acceptance will grow as understanding improves. Problems of acceptability will be definitely overcome once fission and fusion will not be confused anymore. The distinction is still not clear within the general public, concerned about the occurrence of extreme accidents with large radioactivity releases.

Fusion reactions are intrinsically safe. They cannot lead to extreme accidents. Fusion reactions do not allow exponential temperature increase of the reactor core. Fusion involves only small amounts of radioactive material and doesn’t require transporting hazardous fuels. The mass of radioactive materials inside the reactor is many orders of magnitude lower than in fission reactors, which results in far less consequences of any possible accident. No transportation of radioactive fuels nor waste is needed.

Fusion plants will follow strict nuclear safety regulations.

The urgency of the climate crisis and advances in technology have sparked renewed interest in fusion. At the same time, the long development timeline of large-scale projects like ITER has led to growing curiosity about alternative fusion paths that might deliver results sooner. Exploring different approaches reflects both technological progress and the pressure to accelerate the transition to clean energy.

People are getting more sensitive to environmental issues. According to the Special Eurobarometer 538, “Climate Change”, issued in May 2023, 9 out of 10 Europeans perceive “climate change” as the most serious problem facing the world today.

Climate strikes are spreading across the globe, climate legislations are gaining more importance in national policies and in parallel great effort is put in developing new technologies to face immediate urgencies.

All this can be read as a rising shared environmental responsibility that leads to adopt a wider energy perspective. In other words, people feel the urgency of relying on new, clean and reliable energy sources. Since nuclear fusion perfectly fits the role, the renewed interest on alternative fusion concepts that might reduce the wait is definitely justified. Achieving the goal of generating electricity from fusion reactions is a complex enterprise that requires an intense and shared scientific endeavor.

Yes, fusion offers the promise of large-scale, carbon-free electricity that is safe and steady. While it will not solve today’s energy crisis, investing now means preparing a solid, sustainable energy solution for the future.

Nuclear fusion is not a prompt solution to climate change: nuclear fission and renewables are already available and further developments are expected before fusion be available. Nevertheless, fusion is a safe and reliable technology that can deliver large and almost constant amounts of carbon-free electricity, without nuclear ashes and very limited production of activated materials. All these features make fusion attractive and worth the huge efforts and the long wait.

It’s too early for exact figures; there are too many open issues to provide reliable cost estimates. It would be more appropriate discussing on how much fusion power plants should cost. Current studies based on energy global scenarios prove that fusion can play a role in the energy market if costs can be competitive to advanced nuclear energy technologies – GenIII+ fission power plants. This implies smart choices in materials, reactor design and efficiency to meet both technical and economic constraints.

Webinar

Explore our work in the IAEA webinar on socio-economic studies. Watch the webinar!

The SES Team

Who we are:

A logo for PPL ERM-KMS features concentric circles and radiating arrows within a curved shape.
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The ENEA logo, featuring a stylized blue "ENEA" and text reading "Italian National Agency for New Technologies, Energy and Sustainable Economic Development."
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Logo for Laboratorio Nacional de Fusión Ciemat, featuring a sun-like design with a red crescent and yellow rays.
A black and white illustration of a heraldic crest featuring two rearing horses flanking a shield as part of the UKAEA logo.
A map of Europe highlighting countries in blue and marking locations with yellow dots.

Want to know more?

Contact us!

Feel free to reach out at: ses@euro-fusion.org