Interpretation of intragranular strain fields in high-energy synchrotron X-ray experiments via finite element simulations and analysis of incompatible deformation

Keyphrases

• Finite Element Analysis 100%
• Finite Element Simulation 100%
• Strain Field 100%
• Synchrotron X-ray 100%
• X-ray Experiment 100%
• Deformation Compatibility 100%
• Intragranular Strain 100%
• Residual Stress 50%
• Cyclic Loading 50%
• Strain Distribution 25%
• Multiple Length Scales 25%
• Finite Element Model 25%
• Effective Metric 25%
• Continuous Distribution 25%
• Linear Elasticity 25%
• History Dependence 25%
• X-ray Diffraction Microscopy 25%
• Lattice Strain 25%
• Mechanical Strain 25%
• Spatial Concentration 25%
• Material Response 25%
• Grain Orientation 25%
• Stress Concentration 25%
• Stress Deformation 25%
• Finite Element Framework 25%
• Elastic Recovery 25%
• Grain Scale 25%
• Nickel-based Superalloy 25%
• Shakedown 25%
• High-angle Grain Boundary 25%
• Continuous Solution 25%
• Strain Compatibility 25%
• Stress Potential 25%
• Mechanical Equilibrium 25%
• Continuous Distributions of Dislocations 25%
• High Stress Gradient 25%

Engineering

• Finite Element Simulation 100%
• Strain Field 100%
• Residual Stress 100%
• Cyclic Loading 100%
• Length Scale 50%
• Finite Element Method 50%
• Polycrystalline 50%
• Ray Diffraction 50%
• Finite Element Modeling 50%
• Boundary Condition 50%
• Linear Elasticity 50%
• Mechanical Strain 50%
• Potential Site 50%
• Material Response 50%
• Stress Gradient 50%
• Elastic Recovery 50%
• Scale Observation 50%
• Grain Orientation 50%
• High-Angle Grain Boundary 50%
• Mechanical Equilibrium 50%
• Stress Potential 50%

Material Science

• Finite Element Method 100%
• Residual Stress 100%
• X-Ray Diffraction 50%
• Grain Boundary 50%
• Finite Element Modeling 50%
• Elasticity 50%
• Nickel-Based Superalloys 50%