An inverse method to reconstruct crack-tip cohesive zone laws for fatigue by numerical field projection

Keyphrases

• Crack Tip 100%
• Inverse Method 100%
• Cohesive Zone Law 100%
• Hysteresis 50%
• Steady State 50%
• Fatigue Crack Growth 50%
• Loading-unloading 50%
• Field Projection Method 50%
• Fatigue Cycles 50%
• State Fatigue 50%
• Micromechanics 25%
• Inverse Approach 25%
• Strain Field 25%
• Numerical Techniques 25%
• Numerical Experiments 25%
• Phenomenological Models 25%
• Linear Elastic 25%
• Damage Accumulation 25%
• Functional Form 25%
• Elastic Strain 25%
• Material Response 25%
• Cyclic Loading 25%
• Failure Model 25%
• Fatigue Crack Propagation 25%
• Irreversible Damage 25%
• Maxwell 25%
• Reciprocal Theorem 25%
• Cohesive Traction 25%
• Cohesive Zone 25%
• Reciprocity Gap 25%
• Experimental Strains 25%
• Fatigue Cycling 25%
• Monotonic Fracture 25%
• Residual Elastic Strain 25%

Engineering

• Crack Tip 100%
• Inverse Method 100%
• Cohesive Zone 100%
• Elastic Strain 40%
• Fatigue Crack Growth 40%
• Fatigue Cycle 40%
• Strain Field 20%
• Numerical Technique 20%
• Numerical Experiment 20%
• Phenomenological Model 20%
• Cyclic Loading 20%
• Material Response 20%
• Functional Form 20%
• Failure Model 20%
• Fatigue Crack Propagation 20%
• Reciprocal Theorem 20%
• Cohesive Traction 20%
• Monotonic Fracture 20%

Material Science

• Crack Tip 100%
• Fatigue Crack Growth 66%
• Crack Propagation 33%
• Fatigue Crack 33%