Lattice strain and damage evolution of 9-12%Cr ferritic/martensitic steel during in situ tensile test by X-ray diffraction and small angle scattering

Keyphrases

• X Ray Diffraction 100%
• Void Growth 100%
• Damage Evolution 100%
• Void nucleation 100%
• Lattice Strain 100%
• Small-angle Scattering 100%
• Strain Evolution 100%
• Diffraction Angle 100%
• Ferritic-martensitic Steel 100%
• In-situ Tensile Test 100%
• Lattice Damage 100%
• Scattering Measurements 50%
• Matrix Interface 50%
• Stress Evolution 50%
• Small-angle X-ray Scattering 50%
• Interfacial Strength 50%
• Particle Phase 50%
• Tensile Test 50%
• Elastic Mismatch 50%
• Load Transfer 50%
• Matrix Phase 50%
• In Situ X-ray Diffraction 50%
• Interface Decohesion 50%
• Nucleation Criterion 50%
• X-ray Observations 50%
• Large Particle Size 50%
• Critical Strength 50%
• Matrix Plasticity 50%
• Pre-existing Void 50%

Engineering

• Ray Diffraction 100%
• Damage Evolution 100%
• Tensile Test 100%
• Ferritic/Martensitic Steel 100%
• Load Transfer 50%
• Matrix Phase 50%
• Interface Decohesion 50%
• Particle Phase 50%
• Principal Direction 50%