Self-passivating, so-called smart alloys are under development for a future fusion power plant. These alloys containing tungsten, chromium and yttrium must possess an acceptable plasma performance during a regular plasma operation of a power plant and demonstrate the suppression of non-desirable oxidation of tungsten in case of an accident. The up-scaling of the bulk smart alloys to the reactor-relevant sizes has begun and the first samples with a diameter of 50 mm and thickness of 5 mm became available. The samples feature high relative density of above 99% and good homogeneity. With production of bulk samples, the research program on joining the smart alloy to the structural material was initiated. In a present study, the novel titanium–z...
Self-passivating tungsten based alloys will provide a major safety advantage compared to pure tungst...
The use of self-passivating tungsten alloys for the first wall armor of future fusion reactors is ad...
AbstractTungsten is a prime material candidate for the first wall of a future fusion reactor. In the...
Self-passivating Metal Alloys with Reduced Thermo-oxidation (SMART) are under development for the pr...
Self-passivating Metal Alloys with Reduced Thermo-oxidation (SMART) are under development for the pr...
Tungsten test is currently the baseline first-wall armor material for a future DEMOnstration power p...
Tungsten is currently deemed as a promising plasma-facing material (PFM) for the future power plant ...
In case of an accident in the future fusion power plant like DEMO, the loss-of-coolant may happen si...
The severe particle, radiation and neutron environment in a future fusion power plant requires the d...
AbstractSelf-passivating tungsten based alloys for the first wall armour of future fusion reactors a...
Self-passivating tungsten based alloys for the first wall armour of future fusion reactors are expec...
During an accident with loss-of-coolant and air ingress in DEMO, the temperature of tungsten first w...
Tungsten (W) is currently deemed the main candidate for the plasma-facing armor material of the firs...
Tungsten materials are candidates for plasma-facing components for the International Thermonuclear E...
Tungsten materials are candidates for plasma-facing components for the International Thermonuclear E...
Self-passivating tungsten based alloys will provide a major safety advantage compared to pure tungst...
The use of self-passivating tungsten alloys for the first wall armor of future fusion reactors is ad...
AbstractTungsten is a prime material candidate for the first wall of a future fusion reactor. In the...
Self-passivating Metal Alloys with Reduced Thermo-oxidation (SMART) are under development for the pr...
Self-passivating Metal Alloys with Reduced Thermo-oxidation (SMART) are under development for the pr...
Tungsten test is currently the baseline first-wall armor material for a future DEMOnstration power p...
Tungsten is currently deemed as a promising plasma-facing material (PFM) for the future power plant ...
In case of an accident in the future fusion power plant like DEMO, the loss-of-coolant may happen si...
The severe particle, radiation and neutron environment in a future fusion power plant requires the d...
AbstractSelf-passivating tungsten based alloys for the first wall armour of future fusion reactors a...
Self-passivating tungsten based alloys for the first wall armour of future fusion reactors are expec...
During an accident with loss-of-coolant and air ingress in DEMO, the temperature of tungsten first w...
Tungsten (W) is currently deemed the main candidate for the plasma-facing armor material of the firs...
Tungsten materials are candidates for plasma-facing components for the International Thermonuclear E...
Tungsten materials are candidates for plasma-facing components for the International Thermonuclear E...
Self-passivating tungsten based alloys will provide a major safety advantage compared to pure tungst...
The use of self-passivating tungsten alloys for the first wall armor of future fusion reactors is ad...
AbstractTungsten is a prime material candidate for the first wall of a future fusion reactor. In the...