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Modeling of coalescence in polymer blends
SuPing Lyu
,
Frank S. Bates
, Christopher W. Macosko
Chemical Engineering and Materials Science
Research output
:
Contribution to journal
›
Article
›
peer-review
71
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Scopus citations
Overview
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Dive into the research topics of 'Modeling of coalescence in polymer blends'. Together they form a unique fingerprint.
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Keyphrases
Polymer Blends
100%
Coalescence Efficiency
100%
Shear Rate
40%
Hydrodynamic Interaction
40%
Size Difference
40%
Film Drainage Theory
40%
Efficiency Decrease
40%
Population Dynamics
20%
Particle Size
20%
Particle Size Effect
20%
Film Drainage
20%
Polystyrene
20%
Particle Deformation
20%
Viscosity Ratio
20%
Smoluchowski
20%
Large Deformation
20%
Polyethylene Blends
20%
Matrix Viscoelasticity
20%
Smoluchowski Theory
20%
Coalescence Theory
20%
Efficiency First
20%
Modeling Results
20%
High-density Polyethylene
20%
Particle Interaction
20%
Colliding Particles
20%
Engineering
Hydrodynamic Interaction
100%
Increasing Shear Rate
100%
Fluid Viscosity
100%
Polymers
100%
Experimental Result
50%
Size of Particle
50%
Density Polyethylene
50%
Large Deformation
50%
Material Science
Polymer Blend
100%
Film
100%
Hydrodynamics
66%
Density
33%
Polyethylene
33%
Polystyrene
33%
Large Deformation
33%
Chemical Engineering
Polymer Blends
100%
Film Drainage Theory
100%
Polystyrene
50%
High Density Polyethylenes
50%
Film
50%
Earth and Planetary Sciences
Coalescing
100%
Polymer Blends
100%
Hydrodynamics
20%
Polystyrene
10%
Population Dynamics
10%