Load-partitioning in an oxide dispersion-strengthened 310 steel at elevated temperatures

Keyphrases

• Nanoparticles 100%
• Elevated Temperature 100%
• Lattice Strain 100%
• Load Partitioning 100%
• Oxide Dispersion Strengthening 100%
• Oxygen Enrichment 100%
• Microstructure 50%
• Synchrotron X-ray Scattering 50%
• Transmission Electron Microscopy 50%
• Room Temperature 50%
• Sodium Chloride 50%
• Temperature Rise 50%
• Inclusion Phase 50%
• Plastic Deformation 50%
• Austenitic 50%
• Austenite 50%
• Strain Measurement 50%
• Synchrotron X-ray 50%
• Dislocation Interaction 50%
• Nitride Phase 50%
• Oxide Dispersion Strengthened Steel 50%
• Titanium Nitride 50%
• Pyrochlore Structure 50%
• Precipitated Phase 50%
• In-situ Synchrotron 50%
• Ultrafine 50%
• Dislocation Creep 50%
• Electron Synchrotron 50%
• Austenitic Steel 50%
• Nuclear Applications 50%
• High-temperature Performance 50%
• Performance Making 50%
• Advanced nuclear 50%
• Residual Martensite 50%
• Yttrium Titanate 50%
• Tensile Performance 50%
• High Temperature Tensile 50%
• Partitioning Effect 50%

Engineering

• Elevated Temperature 100%
• Oxide Dispersion Strengthened 100%
• Nanoparticle 66%
• Tensiles 66%
• Room Temperature 33%
• Nitride 33%
• Titanate 33%
• Dislocation Interaction 33%
• Plastic Deformation 33%
• Austenite 33%
• Temperature Rise 33%
• Martensite 33%
• Austenitic Stainless Steel 33%
• Dislocation Creep 33%

Material Science

• Oxide Compound 100%
• Nanoparticle 66%
• Sodium 33%
• Titanate 33%
• Titanium 33%
• Transmission Electron Microscopy 33%
• Yttrium 33%
• Plastic Deformation 33%
• Austenite 33%
• Nitride Compound 33%
• Strain Measurement 33%
• Martensite 33%
• Dislocation Creep 33%
• Austenitic Stainless Steel 33%