In situ SEM studies on the effects of particulate reinforcement on fatigue crack growth mechanism of aluminium-based metal-matrix composite

Keyphrases

• Metal Matrix Composites 100%
• Fatigue Crack Growth Rate 100%
• Aluminum Matrix Composites 100%
• SEM Observation 100%
• In-situ SEM 100%
• Particulate Reinforcement 100%
• Stress Threshold 66%
• Fatigue Stress 66%
• Paris Region 66%
• Heat Treatment 33%
• In Situ 33%
• Crack Deflection 33%
• Fatigue Behavior 33%
• Behavior Mechanisms 33%
• Fatigue Properties 33%
• Crack Path 33%
• Aging Effect 33%
• Stress Intensity Factor 33%
• As-received 33%
• Unreinforced 33%
• Scanning Electron Microscope 33%
• Ceramic Particles 33%
• Fatigue Crack Growth 33%
• Matrix-particle Interface 33%
• Fatigue Mechanism 33%
• Crack Closure 33%
• Main Crack 33%
• 6061 Aluminum 33%

Engineering

• Growth Mechanism 100%
• Metal Matrix Composite 100%
• Fatigue Crack Growth 100%
• Fatigue Stress 40%
• Crack Growth Rate 40%
• Stress Intensity 40%
• Stress-Intensity Factor 20%
• Fatigue Property 20%
• Ceramic Particle 20%
• Applied Stress 20%
• Particle Interface 20%
• Crack Path 20%
• Received Condition 20%
• Main Crack 20%
• Crack Closure 20%
• Fatigue Behavior 20%
• Scanning Electron Microscope 20%

Material Science

• Fatigue Crack Growth 100%
• Scanning Electron Microscopy 100%
• Metal Matrix Composite 100%
• Aluminum 100%
• Stress Intensity 40%
• Stress Intensity Factor 20%
• Fatigue Behavior 20%
• Crack Closure 20%