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A constitutive model of nanocrystalline metals based on competing grain boundary and grain interior deformation mechanisms
Ercan Gurses, Tamer S. El Sayed
Physical Sciences and Engineering
Computer, Electrical and Mathematical Sciences and Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
11
Scopus citations
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Dive into the research topics of 'A constitutive model of nanocrystalline metals based on competing grain boundary and grain interior deformation mechanisms'. Together they form a unique fingerprint.
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Engineering
Constitutive Model
100%
Grain Interior
100%
Deformation Mechanism
100%
Grain Boundary
100%
Nanocrystalline Metal
100%
Grain Boundary Diffusion
66%
Grain Boundary Sliding
66%
Rate Sensitivity
33%
Compression Asymmetry
33%
Petch Effect
33%
Keyphrases
Interior Deformation
100%
Deformation Mechanism
100%
Grain Boundary Diffusion
66%
Grain Boundary Sliding
66%
Sliding Mechanism
33%
Mechanical Characteristics
33%
Dislocation Behavior
33%
Pressure Effect
33%
Inelastic Deformation
33%
Grain Boundary Dislocation
33%
Grain Size Dependence
33%
Inverse Hall-Petch Effect
33%
Material Science
Nanocrystalline
100%
Deformation Mechanism
100%
Grain Boundary
100%
Grain Size
50%
Mechanical Property
25%
Grain Boundary Sliding
25%