In this project the behaviour of materials under plasma loading and conversely the influence of the wall material on the plasma properties are investigated.
In magnetic confinement plasma devices the hot central plasma is well separated from the surrounding first wall. Energetic particles can, however, still leave the confined plasma and interact with the surrounding materials. In addition electromagnetic radiation and neutrons created in a fusion plasma impinge onto the wall materials. The latter will influence material properties by causing atomic displacements as well as transmutation reactions within the wall materials.
Due to these harsh conditions modern high performance materials are already employed in present-day fusion devices to ensure a high operating efficiency.
The work performed in the frame of the project "Plasma-Wall Interaction" addresses
- a more detailed understanding of the complex interaction processes between plasma and wall material,
- the development of novel materials with further improved properties, and
- the integration of new materials into plasma-facing components.
For this purpose the scientific-technical resources of IPP, which are relevant to these questions were merged within this project to bundle and to strengthen the activities and competences.
Latest highlights from the project:
- EUROfusion Engineering Grant for the development of high-tech tungsten-copper materials for plasma-facing components
- Is There a Crystal Orientation where the Sputter Yield Corresponds to Amorphous Material?
- SOFT Innovation Prize for Alexander von Müller
- Liquid tin as divertor material
- Four young E2M scientists receive EUROfusion grants
- Innovation Award of the German Copper Institute for IPP Scientist
- EUROfusion Engineering Grant awarded to young E2M Scientist
- The Influence of Radiation, Mechanical, and Plasma-Induced Damage on Deuterium Retention in Tungsten