Revealing Nanoscale deformation mechanisms caused by shear-based material removal on individual grains of a Ni-based superalloy

Keyphrases

• Crystal Lattice 33%
• Cutting Direction 33%
• Cutting Planes 33%
• Deformation Behavior 33%
• Flow Rotation 33%
• Functional Performance 33%
• Grain Boundary 66%
• High-angle Boundary 66%
• In-situ SEM 33%
• Individual Grains 100%
• Lattice Rotation 33%
• Material Removal 100%
• Material Removal Process 33%
• Multiple Grains 33%
• Nanolayers 66%
• Nanopatterning 100%
• Nanoscale Deformation Mechanisms 100%
• Ni-based Superalloy 100%
• Nickel-based Superalloy 33%
• Polycrystalline Nickel 33%
• Recrystallization 33%
• Removal Methods 33%
• Single Grain 33%
• Surface Damage 33%
• Working Surface 66%

Engineering

• Cutting Direction 50%
• Cutting Edge 50%
• Cutting Plane 50%
• Damage Surface 50%
• Deformation Behavior 50%
• Deformation Mechanism 100%
• Functional Performance 50%
• Grain Boundary 100%
• High Angle Boundary 100%
• Individual Grain 100%
• Material Removal 100%
• Material Removal Process 50%
• Nanolayers 100%
• Nanoscale 100%
• Polycrystalline 50%
• Shearing 50%
• Single Grain 50%

Material Science

• Crystal Lattice 50%
• Deformation Mechanism 100%
• Grain Boundary 100%
• Nickel-Based Superalloys 100%
• Scanning Electron Microscopy 50%
• Superalloys 50%
• Surface Damage 50%