Hydrogen-enhanced-plasticity mediated decohesion for hydrogen-induced intergranular and “quasi-cleavage” fracture of lath martensitic steels

Keyphrases

• Decohesion 100%
• Lath Martensitic Steel 100%
• Enhanced Plasticity 100%
• Quasi-cleavage Fracture 100%
• Induced Failures 66%
• Dislocation pile-up 66%
• Quasi-cleavage 66%
• Lath 33%
• Micromechanical Modeling 33%
• Fracture Surface 33%
• Debonding 33%
• Hydrogen Embrittlement 33%
• Nanosize 33%
• Failure Mechanism 33%
• (Ti,Mo)C 33%
• Resistance to Hydrogen Embrittlement 33%
• Hydrogen Content 33%
• Model Prediction 33%
• Focused Ion Beam Machining 33%
• Intergranular Cracking 33%
• Synergistic Action 33%
• Transmission Electron Microscopy Analysis 33%
• Hydrogen Enhanced Localized Plasticity 33%
• Closed-loop System 33%
• Microstructural Design 33%
• Block Boundary 33%
• Recent Transmission 33%
• Steel Microstructure 33%
• Transgranular Fracture 33%
• High-angle Boundary 33%
• Prior Austenite Grain Boundary 33%

Engineering

• Decohesion 100%
• Martensitic Stainless Steel 100%
• Cleavage Fracture 100%
• Hydrogen Embrittlement 66%
• Induced Failure 66%
• Dislocation Pile 66%
• Transmissions 33%
• Grain Boundary 33%
• Micromechanical Model 33%
• Fracture Surface 33%
• Failure Mechanism 33%
• Model Prediction 33%
• Focused Ion Beam 33%
• Closed System 33%
• Steel Microstructures 33%
• Block Boundary 33%
• High Angle Boundary 33%
• Transgranular Fracture 33%
• Prior Austenite Grain 33%

Material Science

• Hydrogen Embrittlement 100%
• Martensitic Stainless Steel 100%
• Cleavage Fracture 100%
• Electron Microscopy 50%
• Grain Boundary 50%
• Transmission Electron Microscopy 50%
• Machining 50%
• Austenite 50%
• Focused Ion Beam 50%
• Transgranular Fracture 50%