Tungsten alloys currently represent prospective candidates to replace tungsten in the first wall applications in future fusion facilities. They are anticipated to suppress unfavorable mechanical properties of commercially pure tungsten and/or to gain advantages such as ability of self-passivation under accidental conditions. The self-passivating alloys are designed to minimize possible consequences related mainly to a LOCA (Loss of Coolant Accident) event with simultaneous air ingress into the reactor vessel. Please click Additional Files below to see the full abstract
Wolfram ist das präferierte Wandmaterial des zukünftigen Fusionsreaktors DEMO. Selbst-passivierende ...
Tungsten is the material of choice for plasma-facing components in future plasma-burning fusion reac...
Tungsten (W) is currently deemed the main candidate for the plasma-facing armor material of the firs...
The use of self-passivating tungsten alloys for the first wall armor of future fusion reactors is ad...
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...
Self-passivating tungsten based alloys will provide a major safety advantage compared to pure tungst...
Tungsten test is currently the baseline first-wall armor material for a future DEMOnstration power p...
International audienceRecent studies have shown that low grain sizes are favorable to improve ductil...
International audienceRecent studies have shown that low grain sizes are favorable to improve ductil...
Tungsten (W) currently is the main candidate as plasma-facing armour material for the first wall of ...
Tungsten is currently deemed as a promising plasma-facing material (PFM) for the future power plant ...
Tungsten is considered as the most promising material for plasma facing components (PFCs) in the mag...
Tungsten (W) currently is the main candidate as plasma-facing armour material for the first wall of ...
Wolfram ist das präferierte Wandmaterial des zukünftigen Fusionsreaktors DEMO. Selbst-passivierende ...
Wolfram ist das präferierte Wandmaterial des zukünftigen Fusionsreaktors DEMO. Selbst-passivierende ...
Tungsten is the material of choice for plasma-facing components in future plasma-burning fusion reac...
Tungsten (W) is currently deemed the main candidate for the plasma-facing armor material of the firs...
The use of self-passivating tungsten alloys for the first wall armor of future fusion reactors is ad...
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...
Self-passivating tungsten based alloys will provide a major safety advantage compared to pure tungst...
Tungsten test is currently the baseline first-wall armor material for a future DEMOnstration power p...
International audienceRecent studies have shown that low grain sizes are favorable to improve ductil...
International audienceRecent studies have shown that low grain sizes are favorable to improve ductil...
Tungsten (W) currently is the main candidate as plasma-facing armour material for the first wall of ...
Tungsten is currently deemed as a promising plasma-facing material (PFM) for the future power plant ...
Tungsten is considered as the most promising material for plasma facing components (PFCs) in the mag...
Tungsten (W) currently is the main candidate as plasma-facing armour material for the first wall of ...
Wolfram ist das präferierte Wandmaterial des zukünftigen Fusionsreaktors DEMO. Selbst-passivierende ...
Wolfram ist das präferierte Wandmaterial des zukünftigen Fusionsreaktors DEMO. Selbst-passivierende ...
Tungsten is the material of choice for plasma-facing components in future plasma-burning fusion reac...
Tungsten (W) is currently deemed the main candidate for the plasma-facing armor material of the firs...