The evolution of internal stress and dislocation during tensile deformation in a 9Cr ferritic/martensitic (F/M) ODS steel investigated by high-energy X-rays

Keyphrases

• Dislocation 100%
• Tensile Deformation 100%
• Internal Stress 100%
• ODS Steel 100%
• Ferritic-martensitic 100%
• High-energy X-rays 100%
• High Temperature 40%
• Room Temperature 40%
• Increased Temperature 40%
• Lattice Strain 40%
• Dislocation Density 40%
• Dislocation Character 40%
• Screw Type 40%
• Edge Dislocation 20%
• High Energy 20%
• Temperature Effect 20%
• Screw 20%
• Screw Dislocation 20%
• Wide-angle 20%
• Young's Modulus 20%
• Cross-slip 20%
• Nanoparticles Effect 20%
• Dislocation Structure 20%
• Tensile Loading 20%
• Elastic Anisotropy 20%
• Edge Modes 20%
• Synchrotron X-ray Diffraction 20%
• In Situ X-ray 20%
• Plastic Strain 20%
• Edge Character 20%
• Strain Development 20%
• Uncertainty Levels 20%
• Oxide Nanoparticles 20%
• Pinning Effect 20%
• Best-fit Method 20%
• With Screws 20%
• Strengthening Factor 20%
• Mobile Edge 20%

Engineering

• Internal Stress 100%
• Tensile Deformation 100%
• Nanoparticle 66%
• Room Temperature 66%
• Increasing Temperature 66%
• Dislocation Density 66%
• Ray Diffraction 33%
• Temperature Dependence 33%
• Young's Modulus 33%
• Cross Slip 33%
• Applied Stress 33%
• Tensiles 33%
• Dislocation Structure 33%
• Plastic Strain 33%
• Edge Dislocation 33%
• Screw Dislocation 33%

Material Science

• Density 100%
• Nanoparticle 100%
• Oxide Compound 50%
• Anisotropy 50%
• Young's Modulus 50%
• Dislocation Structure 50%
• Synchrotron X-Ray Diffraction 50%
• Edge Dislocation 50%
• Screw Dislocation 50%