Micromechanics-based interfacial debonding model for damage of functionally graded materials with particle interactions

Keyphrases

• Applied Load 33%
• Computational Implementation 33%
• Damage Process 33%
• Debonding 33%
• Debonding Model 100%
• Effective Elastic Thickness 33%
• Elastic Distribution 33%
• Elastic Field 66%
• Equivalency 33%
• Functionally Graded Materials 100%
• Interfacial Debonding 100%
• Interfacial Strength 33%
• Isotropic Particles 33%
• Lower Boundary 33%
• Mechanical Loading 33%
• Micromechanical Modeling 33%
• Micromechanics 100%
• Numerical Simulation 33%
• Orthotropic 33%
• Particle Interactions 100%
• Particle Stress 33%
• Progressive Damage 33%
• Representative Volume Element 33%
• Stress Strength 33%
• Transition Function 33%
• Transition Zone 33%
• Upper Boundary 33%

Engineering

• Computer Simulation 33%
• Damage Model 33%
• Damage Process 33%
• Debonding 33%
• Elastic Field 66%
• Functionally Graded Material 100%
• Illustrates 33%
• Interfacial Debonding 100%
• Mechanical Loading 33%
• Micromechanics 100%
• Representative Volume Element 33%

Material Science

• Debonding 100%
• Elasticity 33%
• Functionally Graded Material 100%
• Mechanical Strength 33%
• Micromechanics 100%