Using a multi-scale approach to assess the mechanical properties and deformation mechanisms of high dose Inconel X-750

Keyphrases

• Fracture Surface 100%
• Mechanical Properties 100%
• Deformation Mechanism 100%
• High Dose 100%
• Mechanical Deformation 100%
• Inconel X-750 100%
• Transmission Electron Microscopy 66%
• Grain Boundary 66%
• Grain Interior 66%
• Microtensile 66%
• Transgranular 66%
• Fracture Propagation 33%
• Helium 33%
• Bulk Material 33%
• Radiation Damage 33%
• Electron Microscope 33%
• Structural Materials 33%
• Thermal Neutron Flux 33%
• Flow Stress 33%
• High Thermals 33%
• Temperature History 33%
• Meso 33%
• Ligament 33%
• Helium Bubbles 33%
• Dislocation Channel 33%
• Microhardness 33%
• Displacement Damage 33%
• Nanometer Scale 33%
• Scale Testing 33%
• Local Plasticity 33%
• Critical Resolved Shear Stress 33%
• Component Testing 33%
• Hydrogen Generation Rate 33%
• Micro-tensile Test 33%
• Load Capacity 33%
• Vertically Oriented 33%
• Initiation Mechanism 33%
• Mechanistic Information 33%
• Mixed Failure Modes 33%
• Intergranular Failure 33%
• Bulk Fracture 33%
• Granular Deformation 33%

Engineering

• Fracture Surface 100%
• Tensiles 100%
• Deformation Mechanism 100%
• Multi-Scale Approach 100%
• Grain Interior 66%
• Engineering 33%
• Fracture Propagation 33%
• Bulk Material 33%
• Mixed Mode 33%
• High Resolution 33%
• Nanometre 33%
• Mesoscale 33%
• Structural Materials 33%
• Neutron Flux 33%
• Thermal Neutron 33%
• Flow Stress 33%
• Radiation Effect 33%
• Tensile Test 33%
• Irradiated Material 33%
• Helium Bubble 33%
• Flat Surface 33%
• Microhardness 33%
• Hydrogen Generation 33%
• Critical Resolved Shear Stress 33%
• Bearing Capacity 33%

Material Science

• Surface (Surface Science) 100%
• Deformation Mechanism 100%
• Inconel 100%
• Transmission Electron Microscopy 66%
• Grain Boundary 66%
• Microhardness 33%
• Building Material 33%
• Radiation Damage 33%
• Bearing Capacity 33%