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Pattern formation in non-Newtonian Hele-Shaw flow
Petri Fast
,
L. Kondic
, Michael J. Shelley
, Peter Palffy-Muhoray
Mathematical Sciences
Research output
:
Contribution to journal
›
Article
›
peer-review
94
Scopus citations
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Dive into the research topics of 'Pattern formation in non-Newtonian Hele-Shaw flow'. Together they form a unique fingerprint.
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Keyphrases
Pattern Formation
100%
Tip Splitting
100%
Non-Newtonian
100%
Hele-Shaw Flows
100%
Shear Thinning
66%
Viscoelastic Flow
33%
Numerical Simulation
33%
Liquid Crystal
33%
Motivation
33%
Complex Fluids
33%
Non-Newtonian Fluid
33%
Flow Model
33%
Saffman-Taylor Instability
33%
Hele-Shaw Cell
33%
Distinguished Limits
33%
Air Bubbles
33%
Polymeric Liquid
33%
Dendritic Structure
33%
Side Branch
33%
Elastic Response
33%
Solidification Pattern
33%
Nonlinear Elliptic Boundary Value Problem
33%
Parametric Dependencies
33%
Normal Stress Differences
33%
Thin Gap
33%
Generalized Darcy's Law
33%
Engineering
Shear Thinning
100%
Computer Simulation
50%
Liquid Crystal
50%
Experimental Observation
50%
Length Scale
50%
Boundary Value
50%
Experimental Result
50%
Complex Fluid
50%
Newtonian Fluid
50%
Flow Model
50%
Side Branch
50%
Darcy's Law
50%
Elastic Response
50%
Physics
Shear Thinning
100%
Liquid Crystal
50%
Shedding
50%
nonNewtonian Fluids
50%
Complex Fluid
50%
Taylor Instability
50%
Air Bubble
50%
Boundary Value Problems
50%
Viscoelasticity
50%
Darcy Law
50%
Earth and Planetary Sciences
Shear Thinning
100%
Shedding
50%
Boundary Value Problems
50%
nonNewtonian Fluids
50%
Air Bubble
50%
Darcy Law
50%
Liquid Crystal
50%
Viscoelasticity
50%
Taylor Instability
50%
Material Science
Liquid Crystal
100%
Solidification
100%
Complex Fluid
100%