Annual Review of Materials Research · 2008 · 1.2K citations · 123 references
EngineeringMaterials EngineeringMaterials ScienceMetallurgyNuclear MaterialsStructural MaterialsAlloysFracture MechanicsFusion Reactor MaterialsNuclear FusionRadiation Damage In MaterialsRadiation-resistant MaterialsCreep RuptureFatigue StrengthIrradiation DamageMechanical Properties Under IrradiationNanostructured FerritesNeutron Irradiation DamageRadiation-resistant AlloysStructural Materials For Fusion Reactors
Advanced fission and future fusion energy will require new high-performance structural alloys with outstanding properties that are sustained under long-term service in ultrasevere environments, including neutron damage producing up to 200 atomic displacements per atom and, for fusion, 2000 appm of He. Following a brief description of irradiation damage and damage resistance, we focus on an emerging class of nanostructured ferritic alloys (NFAs) that show promise for meeting these challenges. NFAs contain an ultrahigh density of Y-Ti-O-enriched dispersion-strengthening nanofeatures (NFs) that, along with fine grains and high dislocation densities, provide remarkably high tensile, creep, and fatigue strength. The NFs are stable under irradiation up to 800°C and trap He in fine-scale bubbles, suppressing void swelling and fast fracture embrittlement at lower temperatures and creep rupture embrittlement at high temperatures. The current state of the development and understanding of NFAs is described, along with some significant outstanding challenges.
123
Fundamentals of Radiation Materials Science: Metals and Alloys
Materials Today · 2007 · 1.3K citations · Full text
Materials for the plasma-facing components of fusion reactors
H. Bolt, V. Barabash, W. Krauss et al. · Journal of Nuclear Materials · 2004 · 666 citations