Determination of interfacial fracture toughness in high temperature composites

Keyphrases

• Al-Al2O3 33%
• Analytical Model 33%
• Composite Steel 33%
• Computational Model 33%
• Crack Length 33%
• Debond Length 100%
• Debonding 33%
• Ductility 33%
• Elastic Modulus 33%
• Elevated Temperature 33%
• Epoxy 100%
• Epoxy Resin Systems 33%
• Failure Mechanism 33%
• Failure Sequence 33%
• Fiber Debonding 33%
• Fiber Matrix 33%
• Fiber Push-out 33%
• Fiber Radius 33%
• Fiber-matrix Interface 33%
• High Temperature 33%
• High Temperature Composites 100%
• Interface Problem 33%
• Interface Region 33%
• Interfacial Characterization 33%
• Interfacial Crack 33%
• Interfacial Fracture Toughness 100%
• Interfacial Performance 33%
• Interfacial Properties 33%
• Model Composites 66%
• Modulus Ratio 33%
• Photoelastic Experiment 33%
• Polyester 100%
• Push-out Test 66%
• Range of Applicability 33%
• Residual Matrix 33%
• Residual Stress 66%
• Residual Stress State 33%
• Room Temperature 33%
• Service Temperature 66%
• Shear Lag 66%
• Stress Value 33%
• TiAlV 66%
• Young's Modulus 33%

Engineering

• Applicability 33%
• Composite Steel 33%
• Crack Length 33%
• Debonding 66%
• Elevated Temperature 33%
• Failure Mechanism 33%
• Impact Toughness 100%
• Interfacial Crack 33%
• Matrix Interface 33%
• Model Experiment 33%
• Residual Stress 100%
• Room Temperature 33%
• Shear Lag 33%
• Shear Lag Model 33%
• Stress State 33%
• Surface Effect 33%
• Young's Modulus 66%

Material Science

• Al2O3 33%
• Debonding 66%
• Elastic Moduli 33%
• Fracture Toughness 100%
• Interface Property 33%
• Polyester 100%
• Residual Stress 100%
• Young's Modulus 33%