Effects of hydrogen on steady, ductile crack growth: Computational studies

Keyphrases

• Void Growth 100%
• Computational Study 100%
• Growth Rate 100%
• Ductile Crack Growth 100%
• Propagating Crack 66%
• Tear Resistance 66%
• Crack Tip 33%
• Plastic Regime 33%
• Diffusion Rate 33%
• Computational Model 33%
• Hydrogen Effect 33%
• Plane Strain 33%
• Stationary Crack 33%
• Hydrogen Concentration 33%
• Deformation History 33%
• Transient Analysis 33%
• Plastic Zone 33%
• Hydrogen-free 33%
• Constitutive Model 33%
• Material Response 33%
• Material Softening 33%
• Crack Front 33%
• Geometric Constraints 33%
• Hydrogen-induced Softening 33%
• Elastic-plastic 33%
• Ductile Metals 33%
• Ductile Crack Propagation 33%
• High Solubility 33%
• R-curve 33%
• Quasi-static Conditions 33%
• Solubility Model 33%
• Near-tip Fields 33%
• Charge Materials 33%
• Imposed Constraint 33%
• Qualitative Estimation 33%

Engineering

• Void Growth 100%
• Ductile Crack Growth 100%
• Propagating Crack 66%
• Crack Propagation 33%
• Crack Tip 33%
• Plane Strain 33%
• Stationary Crack 33%
• Test Specimen 33%
• Transient Analysis 33%
• Plastic Zone 33%
• Constitutive Model 33%
• Crack Front 33%
• Material Response 33%
• Model Material 33%
• Ductile Metal 33%
• Geometric Constraint 33%
• Resistance Curve 33%
• Quasistatic Condition 33%
• Plastic Regime 33%