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Tritium decay helium-3 effects in tungsten
M. Shimada
, B. J. Merrill
Nuclear Science & Technology
Research output
:
Contribution to journal
›
Article
›
peer-review
18
Scopus citations
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Keyphrases
Tungsten
100%
Tritium
100%
Tritium Decay
100%
Helium-3
100%
Tritium Concentration
60%
Neutron
40%
Nuclear Reactions
40%
Helium
20%
Bulk Material
20%
Large Cross-section
20%
Neutron Energy Spectrum
20%
Elevated Temperature
20%
Surface Morphology
20%
Material Evolution
20%
Interaction Process
20%
Kinetic Energy
20%
Neutron Radiation
20%
Thermal Neutron
20%
Microstructural Damage
20%
Radiation Defects
20%
Displacement Damage
20%
Defects in Materials
20%
Plasma-facing Components
20%
Trap Site
20%
Plasma-surface Interaction
20%
Combined Kinetics
20%
Helium-4
20%
Fusion DEMO
20%
Physics
Tritium
100%
Helium Isotope
100%
Nuclear Reaction
18%
Neutron Radiation
18%
Kinetic Energy
9%
Thermal Neutron
9%
Plasma Facing Component
9%
Half-Life
9%
Surface Reaction
9%
Chemistry
Helium
100%
Tritium
100%
Nuclear Reaction
20%
Kinetic Energy
10%
Surface Reaction
10%
Tritium Atom
10%
Plasma Facing Component
10%
Material Science
Tritium
100%
Tungsten
100%
Surface (Surface Science)
9%
Surface Morphology
9%
Engineering
Tritium
100%
Bulk Material
9%
Cross Section
9%
Energy Spectra
9%
Neutron Energy
9%
Thermal Neutron
9%
Elevated Temperature
9%
Surface Morphology
9%
Induced Defect
9%
Simple Model
9%
Plasma Facing Component
9%
Produce Hydrogen
9%
Larger Cross
9%
Chemical Engineering
Tritium
100%
Plasma Facing Component
9%