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A numerical model of transformation superplasticity for iron
Peter Zwigl,
David C. Dunand
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Corresponding author for this work
Materials Science and Engineering
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Article
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peer-review
12
Scopus citations
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Keyphrases
Numerical Model
100%
Superplasticity
100%
Phase Transformation
50%
Yield Stress
50%
Uniaxial
50%
Plane Strain
50%
Ideally Plastic Material
50%
Analytical Solution
25%
High Stress
25%
Strain Specificity
25%
Low Stress
25%
Temperature Stress
25%
Linear Relationship
25%
Analytical Prediction
25%
Temperature Evolution
25%
Strain-based Formulation
25%
Strain Increment
25%
Plastic Strain
25%
Pure Iron
25%
Stress Approach
25%
Two-dimensional Plane
25%
Temperature Strain
25%
Engineering
Numerical Model
100%
Iron
100%
Applied Stress
75%
Plane Strain
50%
Yield Point
50%
Two Dimensional
25%
Linear Relationship
25%
Strain Increment
25%
Plastic Strain Increment
25%
Temperature Stress
25%
Pure Iron
25%
Material Science
Superplasticity
100%
Yield Stress
66%
Plastic Material
66%