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Micromechanics of hydride formation and cracking in zirconium alloys
J. Lufrano
,
P. Sofronis
Mechanical Science and Engineering
Materials Science and Engineering
Materials Research Laboratory
Grainger College of Engineering
Center for East Asian and Pacific Studies
Research output
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Contribution to journal
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Article
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peer-review
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Keyphrases
Micromechanics
100%
Hydride Formation
100%
Zirconium Alloy
100%
Hydrides
75%
Crack Tip
50%
Hydrogen Concentration
50%
Solid Solubility
50%
Finite Element Analysis
25%
Volume Fraction
25%
Fracture Toughness
25%
Applied Load
25%
Plane Strain
25%
Solute Hydrogen
25%
Load Increase
25%
Elastoplastic
25%
Hydrogen Diffusion
25%
External Load
25%
Material Deformation
25%
Hydrogen Formation
25%
Stress-free
25%
Local Time
25%
Mechanistic Effect
25%
Strain Loading
25%
Local Distribution
25%
Volume Strain
25%
Work-as-done
25%
Volume Stress
25%
Zr-Nb Alloy
25%
Pressure Tube
25%
Generating Stations
25%
CANDU
25%
Engineering
Micromechanics
100%
Hydride Formation
100%
Crack Tip
50%
Solid Solubility
50%
Transients
25%
Energetics
25%
Plane Strain
25%
External Load
25%
Externally Applied Load
25%
Pressure Tube
25%
Finite Element Analysis
25%
Fracture Strength
25%
Material Science
Micromechanics
100%
Hydride
100%
Zirconium Alloy
100%
Crack Tip
28%
Finite Element Method
14%
Volume Fraction
14%
Fracture Toughness
14%