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Viscoelasticity enhances collective motion of bacteria
Wentian Liao
,
Igor S. Aranson
Biomedical Engineering
Huck Institutes of the Life Sciences
Center for Interdisciplinary Mathematics
Research output
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Contribution to journal
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Article
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peer-review
15
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Scopus citations
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Keyphrases
Collective Motion
100%
Viscoelasticity
100%
Polymer Solution
100%
Active Matter
100%
Computational Modeling
50%
Human Microbiota
50%
Porcine
50%
Newtonian Fluid
50%
Mucosal Surfaces
50%
Locomotion
50%
Non-Newtonian
50%
Antibiotic Resistance
50%
Complex Fluids
50%
Mucin
50%
Cervical mucus
50%
Mucus
50%
Bacterial Colonization
50%
Bacterial Suspensions
50%
Bacterial Locomotion
50%
Animal Microbiota
50%
Spatiotemporal Organization
50%
Bacterial Motion
50%
Immunology and Microbiology
Motion
100%
Viscoelasticity
100%
Bacterium
100%
Microflora
33%
Infectious Disease
33%
Cow
33%
Mucin
33%
Bacterial Colonization
33%
Computer Simulation
33%
Infection
33%
Antibiotic Resistance
33%
Engineering
Viscoelasticity
100%
Polymer
100%
Length Scale
50%
Experimental Observation
50%
Complex Fluid
50%
Bacterial Suspension
50%
Computer Simulation
50%
Newtonian Fluid
50%
Physics
Viscoelasticity
100%
Bacterium
100%
Active Matter
66%
Swarming
66%
Newtonian Fluid
33%
Computational Modeling
33%
Complex Fluid
33%
Earth and Planetary Sciences
Viscoelasticity
100%
Bacterium
100%
Swarming
66%
Computational Modeling
33%
Newtonian Fluid
33%
Collective Behavior
33%
Material Science
Polymer Solution
100%
Viscoelasticity
100%
Elasticity
50%
Complex Fluid
50%
Mucin
50%