Modeling failure of metallic glasses due to hydrogen embrittlement in the absence of external loads

Keyphrases

• Finite Element Analysis 100%
• Hydrogen Embrittlement 100%
• Crack Length 100%
• Metallic Glass 100%
• Failure Time 100%
• Edge Crack 100%
• External Load 100%
• Order of Magnitude 50%
• Fracture Mechanics 50%
• Ribbon 50%
• Internal Pressure 50%
• Fracture Toughness 50%
• Crack Propagation 50%
• Hydrogen Concentration 50%
• Linear Elasticity 50%
• Hydrogen Diffusion 50%
• Electrochemical Hydrogen Charging 50%
• Cracking Time 50%
• Stress Intensity Factor 50%
• Critical Crack 50%
• Hydrogen Bubble 50%
• Diffusive Flux 50%
• Coupled Diffusion 50%
• Critical Pressure 50%
• Concentration-dependent Diffusion 50%
• High-pressure Hydrogen 50%

Engineering

• Crack Length 100%
• External Load 100%
• Finite Element Analysis 100%
• Edge Crack 100%
• Hydrogen Embrittlement 100%
• Internal Pressure 50%
• Linear Elasticity 50%
• Method in Fracture Mechanics 50%
• Critical Crack 50%
• Diffusion Flux 50%
• Hydrogen Bubble 50%
• Critical Pressure 50%
• Stress-Intensity Factor 50%
• Fracture Strength 50%

Material Science

• Finite Element Method 100%
• Hydrogen Embrittlement 100%
• Amorphous Metal 100%
• Elasticity 50%
• Fracture Toughness 50%
• Method in Fracture Mechanics 50%
• Stress Intensity Factor 50%