Tensile overload-induced texture effects on the fatigue resistance of a CoCrFeMnNi high-entropy alloy

Keyphrases

• Fatigue Resistance 100%
• Tensile Overload 100%
• CoCrNi Medium-entropy Alloy 100%
• Texture Effects 100%
• Crack Tip 66%
• Fatigue State 66%
• Deformation Level 66%
• X-ray 33%
• Texture Orientation 33%
• Plastic Deformation 33%
• Orientation Distribution Function 33%
• Shear Deformation 33%
• Electron Backscatter Diffraction 33%
• Full-size 33%
• Induced Cracking 33%
• Fatigue Crack Growth 33%
• Crack Growth Retardation 33%
• American Society 33%
• Function Analysis 33%
• Crystal Deformation 33%
• Crack Deflection 33%
• Diffraction Mapping 33%
• Crystallographic Texture 33%
• Crack Tip Blunting 33%
• High Strain Rate Deformation 33%
• Deformation Regime 33%
• Nanodiffraction 33%
• Testing Standards 33%
• Stress Unloading 33%
• Material Standard 33%
• Deformation Texture 33%
• Paris Regime 33%

Engineering

• Tensiles 100%
• Fatigue Resistance 100%
• High-Entropy Alloys 100%
• Crack Tip 60%
• Retardation 20%
• Plastic Deformation 20%
• Early Work 20%
• Shear Deformation 20%
• Fatigue Crack Growth 20%
• Function Analysis 20%
• Crack Growth 20%
• Deformation Texture 20%
• Crystallographic Texture 20%

Material Science

• Fatigue of Materials 100%
• Crack Tip 100%
• High Entropy Alloys 100%
• Plastic Deformation 33%
• Fatigue Crack Growth 33%
• Crack Growth 33%
• Electron Backscatter Diffraction 33%