Discrete dislocation dynamics simulations to interpret plasticity size and surface effects in freestanding FCC thin films

Keyphrases

• Back Stress 50%
• Bauschinger Effect 50%
• Characteristic Length Scale 50%
• Columnar Grain 50%
• Confined Systems 50%
• Constitutive Response 50%
• Deformation Mechanism 50%
• Discrete Dislocation Dynamics 100%
• Discrete Dislocations 50%
• Dislocation Analysis 50%
• Dislocation Source 50%
• Film Grain 50%
• Film Microstructure 50%
• Film Thickness 50%
• Geometric Dimension 50%
• Grain Aspect Ratio 50%
• Grain Boundary 50%
• Grain Boundary Dislocation 50%
• Grain Size 50%
• In Situ TEM 50%
• Mesoscopic 50%
• Metallic Thin Films 50%
• Microstructural Characteristics 50%
• Nucleation Site 50%
• Plastic Deformation 50%
• Plastic Response 50%
• Size Dependence 50%
• Size Effect 100%
• Size Scaling 50%
• Stress Distribution 50%
• Unloading Behavior 50%

Engineering

• Aspect Ratio 33%
• Bauschinger Effect 33%
• Characteristic Length 33%
• Columnar Grain 33%
• Deformation Mechanism 33%
• Discrete Dislocation Dynamics 100%
• Experimental Investigation 33%
• Geometric Dimension 33%
• Length Scale 33%
• Metallic Thin Film 33%
• Microstructural Feature 33%
• Nucleation Site 33%
• Plastic Deformation 33%
• Plastic Response 33%
• Size Effect 100%
• Size Scale 33%
• Surface Effect 100%
• Thin Films 100%

Material Science

• Deformation Mechanism 50%
• Dislocation Dynamics 100%
• Film 50%
• Film Thickness 50%
• Grain Boundary 100%
• Grain Size 50%
• Nucleation 50%
• Plastic Deformation 50%
• Surface (Surface Science) 100%
• Thin Films 100%