Constitutive modeling of multiscale polycrystals considering grain structures and orientations

Keyphrases

• Meso 100%
• Polycrystal 100%
• Grain Structure 100%
• Constitutive Modeling 100%
• Grain Orientation 100%
• Size Effect 66%
• Grain Boundary 66%
• Microcracks 66%
• Shear Band 66%
• Prediction Accuracy 33%
• Anisotropy 33%
• Deformation Behavior 33%
• Response Behavior 33%
• Grain Size 33%
• Polycrystalline Materials 33%
• Plastic Deformation 33%
• Plasticity Theory 33%
• Specimen Size 33%
• Effect-based Methods 33%
• Flow Stress 33%
• Microforming 33%
• Compression Test 33%
• Deformation Problem 33%
• Crystal Plasticity 33%
• In Meso 33%
• Mechanical Deformation 33%
• Metallic Materials 33%
• Mechanical Response 33%
• Zigzag 33%
• Micro-deformation 33%
• Deformation Zone 33%
• Fine-grained Materials 33%
• Freeform Geometry 33%
• Efficiency Prediction 33%
• Grain Boundary Regions 33%
• Simulation Efficiency 33%
• Large Crack 33%
• Micro-scaled 33%
• Individual Grains 33%

Engineering

• Multiscale 100%
• Constitutive Modeling 100%
• Polycrystal 100%
• Shear Band 100%
• Size Effect 100%
• Deformation Behavior 50%
• Accurate Prediction 50%
• Mechanical Response 50%
• Tensiles 50%
• Flow Stress 50%
• Deformation Zone 50%
• Boundary Region 50%
• Individual Grain 50%
• Plastic Deformation 50%
• Plasticity Theory 50%
• Engineering 50%
• Polycrystalline 50%
• Polycrystalline Material 50%
• Compression Tests 50%

Material Science

• Grain Boundary 100%
• Constitutive Modeling 100%
• Crystal Microstructure 100%
• Polycrystal 100%
• Shear Band 66%
• Plastic Deformation 33%
• Polycrystalline Material 33%
• Anisotropy 33%
• Microforming 33%
• Grain Size 33%
• Crystal Plasticity 33%
• Plasticity Theory 33%