Research Areas
  • Radiation damage in fusion materials
  • Physical, Mechanical & Radiological properties of fusion materials
  • Plasma facing materials & components
  • Neutronic calculations
  • Nuclear Techniques
  • Radiation Protection

Fusion Technology Group

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The plasma inside the ITER Tokamak.

The Fusion Technology Group (FTG, aims to contribute significantly in the worldwide effort for the utilization of fusion as a safe, abundant and clean energy source.

Fusion is the nuclear process that generates energy in the Sun and the stars. It involves the reaction between light atomic nuclei which fuse together to form a heavier nucleus releasing at the same time a large amount of energy. Harnessing this energy source here on earth presents significant scientific and technological challenges.

The European Roadmap to Fusion Energy  describes in detail the approach of the European fusion research community towards the goal of commercial electricity from fusion. FTG is an active part of this community, making decisive contributions in the two pillars of the European Fusion Project (EUROfusion):

  1. Efficient preparation of ITER experiments through the Joint European Torus (JET) exploitation and
  2. Development of concepts for the future fusion power demonstration plant DEMO.

Furthermore, FTG leads the Fusion Technology Program of the Greek National Program of Controlled Thermonuclear Fusion and co-ordinates the NCSR “Demokritos” Fusion Technology Research Team consisting of scientists from INRASTES, the Institute of Nuclear and Particle Physics (INPP) and the Institute of Nanoscience and Nanotechnology (INN) integrating the relevant research facilities of these Institutes in the research activities of FTG.

The research expertise and infrastructure of FTG come under two main headings:

  • Materials at Extreme Environment and
  • Radiation Physics.

The research activities of the group include development of neutron detectors, neutronic, Monte Carlo transport and activation calculations, radiation damage studies of materials induced by neutrons and fast ions, experimental validation of radiation effects modelling, understanding the interaction between plasma and plasma facing materials, and plasma diagnostics. Furthermore, FTG’s expertise and infrastructure are also applied to different research areas such as thermal protection systems for aerospace applications, joining of dissimilar materials for high temperature applications, nanotechnology, archaeometry studies, etc in strong collaboration with research groups from European Institutes, Industry and the other NCSR-“Demokritos” Institutes.

Media Gallery of Fusion Technology Group



Latest Grants

Previous Slide
The EUROfusion programme directs and integrates research across Europe into a comprehensive R&D programme to realise fusion energy. Fusion energy has the potential to generate sustainable, low-car...
FRINGE is a research and innovation action funded under H2020-FETOPEN program that is focused on the development of a genuinely new hybrid-technology for cancer therapy. FRINGE aim is to combine the a...
Tungsten (W) plays a key role in fusion research as it is considered the most suitable material for plasma facing components. One of the difficulties in the utilization of W is its inherent brittlenes...
HYDRA aims the development of hybrid thermal protection systems (TPS) for their use in space applications with extreme oxidative environments and high temperature resistance, such as hot parts of spac...

Project summary

The EUROfusion programme is based on the Roadmap to the Realisation of Fusion Energy<...
Scientific Coordination of the tasks:
  • Radiation damage in Fe and Fe-Cr alloys by electrical resistivity measurements
  • Short-range ordering kinetics in Fe-Cr alloys under irradi...
The timely availability of qualified materials for use in fusion power reactors is a necessity for the fast deployment of fusion power. 27 European institutions have joined together in the FEMaS-CA to...
Τhe ExtreMat Integrated Project targeted on the creation of new multifunctional materials being beyond reach with conventional incremental materials development only. Based on an integrated approach, ...
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Proud to Collaborate with

Polytechnic of Turin
University of Leeds School of Physics and Astronomy
United Kingdom
Laboratoire Leon Brillouin CEA
Saclay, France
Rutherford Appleton Laboratory
United Kingdom
Polish Academy of Science, Institute of Physics
National Institute for Lasers, Plasma & Radiation Physics
SCK-CEN, Belgian Nuclear Research Centre
Max-Planck Institute for Plasma Physics
Culham Centre for Fusion Energy (CCFE), UK Atomic Energy Authority
United Kingdom
Centro de Investigaciones Energéticas, Medioambientales y Tecnológicas (CIEMAT)
Madrid, Spain
Reactor Institute Delft, Delft University of Technology
The Netherlands
Italian National Agency for New Technologies, Energy & Sustainable Economic Development (ENEA)
Aerospace Materials & Advanced Technologies
KTH Royal Institute of Technology
Unité Matériaux et Transformations (UMET), Université de Lille I

European Industries

INRASTES - Official Web Site
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