Micromechanical Investigation of the Fatigue Crack Propagation and Damage Development in Al/Al₂O₃/SiC Hybrid Metal Matrix Composite

Keyphrases

• Fatigue Crack Propagation 100%
• Micromechanical Investigation 100%
• Al2O3-SiC 100%
• Damage Development 100%
• Al-Al2O3 100%
• SiC Hybrid Module 100%
• Crack Damage 100%
• Hybrid Metal Matrix Composites 100%
• Al Alloy 60%
• Fracture Surface 40%
• Crack Propagation 40%
• Fiber Reinforced Metal Matrix Composite 40%
• Interface Debonding 20%
• Scanning Electron Microscopy 20%
• Large Volume 20%
• Debonding 20%
• Surface Analysis 20%
• Optical Microscope 20%
• Matrix Interface 20%
• Crack Growth 20%
• Three-point Bending Fatigue 20%
• Structural Inhomogeneity 20%
• Stable Crack Growth 20%
• Void nucleation 20%
• Composite Alloy 20%
• Notched Specimen 20%
• Crack Profile 20%
• Striations 20%
• Unstable Fracture 20%
• Threshold Region 20%
• Three-dimensional Surface 20%
• Transgranular Fracture 20%
• Crack Path 20%
• Al2O3 Fiber 20%
• Crack Propagation Resistance 20%
• Path Profile 20%
• Micro-mechanism 20%
• K-region 20%

Material Science

• Al2O3 100%
• Crack Propagation 100%
• Fatigue Crack 100%
• Metal Matrix Composite 100%
• Debonding 40%
• Fiber-Reinforced Metal-Based Composite 40%
• Scanning Electron Microscopy 20%
• Surface Analysis 20%
• Nucleation 20%
• Stable Crack Growth 20%
• Crack Growth 20%
• Transgranular Fracture 20%

Engineering

• Metal Matrix Composite 100%
• Fatigue Crack Propagation 100%
• Damage Development 100%
• Crack Propagation 42%
• Al Alloy 42%
• Debonding 28%
• Fracture Surface 28%
• Point Bending 14%
• Mechanical Fatigue Test 14%
• Matrix Interface 14%
• Optical Microscope 14%
• Crack Growth 14%
• Transgranular Fracture 14%
• Stable Crack Growth 14%
• Dimensional Surface 14%
• Crack Profile 14%
• Crack Path 14%
• Notched Specimen 14%