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Micromechanical modeling of superplastic deformation
K. Murali,
N. Chandra
Research output
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Contribution to journal
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Article
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peer-review
15
Scopus citations
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Keyphrases
Strain Rate
100%
Deformation Mechanism
100%
Superplastic Deformation
100%
Micromechanical Modeling
100%
Temperature Effect
50%
Flow Motion
50%
Bulk Material
50%
Flow Stress
50%
Strain Field
50%
Crystal Orientation
50%
Mechanism-based
50%
Mechanical Characteristics
50%
Grain Size
50%
Superplastic
50%
Superplasticity
50%
Microstructural Characteristics
50%
Recrystallized
50%
7475 Aluminum Alloy
50%
Diffusional
50%
Aluminum-lithium Alloy
50%
Strain Rate Behavior
50%
Grain Level
50%
Stress Redistribution
50%
Accommodation Mechanism
50%
Micromechanical Deformation
50%
Polycrystalline Bulk
50%
Dislocation Movement
50%
Individual Grains
50%
Engineering
Strain Rate
100%
Superplastic Deformation
100%
Micromechanical Modeling
100%
Deformation Mechanism
66%
Polycrystalline
33%
Strain Field
33%
Crystallographic Orientation
33%
Bulk Material
33%
Micromechanical Model
33%
Flow Stress
33%
Diffusional Flow
33%
Grain Level
33%
Microstructural Feature
33%
Individual Grain
33%
Accommodation Mechanism
33%
Dislocation Movement
33%
Material Science
Strain Rate
100%
Deformation Mechanism
66%
Grain Size
33%
Aluminum Alloys
33%
Superplasticity
33%
Aluminum-Lithium Alloys
33%