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Universal features of the shape of elastic fibres in shear flow
Paweł J. Zuk
, Agnieszka M. Słowicka
, Maria L. Ekiel-Jezewska
,
Howard A. Stone
Mechanical & Aerospace Engineering
Chemical & Biological Engineering
High Meadows Environmental Institute
Lewis-Sigler Institute for Integrative Genomics
Molecular Biology
Princeton Materials Institute
Research output
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Contribution to journal
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Article
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peer-review
33
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Keyphrases
Elastic Fibers
100%
Shear Flow
100%
Universal Characteristic
100%
Elastica
100%
Numerical Simulation
50%
Numerical Results
50%
Hydrodynamic Interaction
50%
Power Law
50%
Flow Direction
50%
Low Reynolds number
50%
Stiffness
50%
Characteristic Timescales
50%
Lubrication Force
50%
Bending Stiffness
50%
Fiber Length
50%
Slender Body Theory
50%
Fiber Bending
50%
Theoretical Scheme
50%
Multipole Expansion
50%
Spring Framework
50%
Straight Fibres
50%
Bent Fiber
50%
Fiber Rotation
50%
Scale Feature
50%
Fiber Motion
50%
Engineering
Shear Flow
100%
Numerical Study
50%
Flow Direction
50%
Characteristic Time
50%
Hydrodynamic Interaction
50%
Lubrication Force
50%
Bending Stiffness
50%
Fibre Length
50%
Slender Body Theory
50%
Elastica Model
50%
Computer Simulation
50%
Rigidity
50%
Numerical Analysis
50%
Mathematics
Timescale
100%
Numerical Analysis
50%
Power Law
50%
Characteristic Time
50%
Multipole Expansion
50%
Computer Simulation
50%
Reynolds Number
50%
Earth and Planetary Sciences
Shear Flow
100%
Timescale
100%
Multipole
50%
Power Law
50%
Hydrodynamics
50%
Numerical Simulation
50%
Physics
Shear Flow
100%
Multipole
50%
Slender Body
50%
Hydrodynamics
50%
Numerical Analysis
50%
Numerical Simulation
50%
Material Science
Shear Flow
100%
Hydrodynamics
50%