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Computer simulation of spinodal decomposition in constrained films
D. J. Seol
, S. Y. Hu
, Y. L. Li
, J. Shen
, K. H. Oh
,
L. Q. Chen
Materials Science and Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
118
Scopus citations
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Keyphrases
Alloy Thin Films
33%
Anisotropic Film
66%
Binary Alloy
33%
Bulk System
33%
Cahn-Hilliard
33%
Coherency Strain
100%
Constraint Boundary
33%
Diffusion Equation
33%
Elastic Anisotropy
33%
Elastic Energy
33%
Elasticity Solution
33%
Energy Impact
33%
Film Substrate
33%
Film Thickness
66%
Fourier Spectral Method
33%
Microstructure Evolution
33%
Morphological Evolution
33%
Numerical Simulation
33%
Phase Separation
33%
Phase-field Model
33%
Semi-implicit
33%
Spinodal Decomposition
100%
Strain Constraint
33%
Stress Constraints
33%
Stress-free Boundary
33%
Substrate Constraint
66%
Thickness Constraint
33%
Three-dimensional (3D)
33%
Engineering
Anisotropic
66%
Binary Alloy
33%
Boundary Condition
66%
Coherency Strain
100%
Diffusion Equation
33%
Elastic Energy
33%
Elastic Solution
33%
Field Model
33%
Microstructure Evolution
33%
Phase Composition
100%
Phase Field
33%
Phase Separation
33%
Thin Films
100%
Material Science
Anisotropy
33%
Binary Alloy
33%
Film
100%
Film Thickness
66%
Morphology
33%
Phase Composition
100%
Phase Field Model
33%
Surface (Surface Science)
33%
Thin Films
100%