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Volumn 59, Issue 4, 2011, Pages 1557-1569
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A nanoscale mechanism of hydrogen embrittlement in metals
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Author keywords
Diffusion; Dislocation; Ductility; Fracture; Hydrogen embrittlement
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Indexed keywords
APPLIED LOADS;
ATOMISTIC SIMULATIONS;
CLEAVAGE FRACTURE;
CONCEPTUAL MODEL;
DISLOCATION;
DISLOCATION EMISSIONS;
DUCTILE-TO-BRITTLE TRANSITION;
FRACTURE MODE;
H DIFFUSION;
HYDROGEN ACCUMULATION;
HYDROGEN CHEMICAL POTENTIALS;
HYDROGEN DISTRIBUTION;
INTERATOMIC POTENTIAL;
KINETIC ANALYSIS;
LOAD LEVELS;
LOADING PARAMETERS;
LOADING RATE;
MATERIAL PARAMETER;
METALLIC SYSTEMS;
MICROCRACK TIP;
MOLECULAR STATICS;
NANO-SCALE MECHANISM;
NEW MODEL;
NOTCH RADII;
PREDICTIVE MECHANISMS;
SINGLE CRYSTAL NI;
TENSILE SPECIMENS;
TILT GRAIN BOUNDARY;
BRITTLE FRACTURE;
CHEMICAL ANALYSIS;
COMPUTER SIMULATION;
CRACK PROPAGATION;
CRACK TIPS;
CRACKING (CHEMICAL);
DIFFUSION;
DISLOCATIONS (CRYSTALS);
DUCTILE FRACTURE;
DUCTILITY;
FRACTURE TOUGHNESS;
GRAIN BOUNDARIES;
HYDROGEN;
LOADING;
SINGLE CRYSTALS;
HYDROGEN EMBRITTLEMENT;
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EID: 78651393229
PISSN: 13596454
EISSN: None
Source Type: Journal
DOI: 10.1016/j.actamat.2010.11.019 Document Type: Article |
Times cited : (236)
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References (87)
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