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Microfluidics approach to investigate foam hysteretic behaviour
Leslie Labarre, Daniele Vigolo
Chemical Engineering
Research output
:
Contribution to journal
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Article
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peer-review
3
Citations (Scopus)
206
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Keyphrases
Hysteresis
100%
Hysteretic Behavior
100%
Microfluidic Technique
100%
Viscosity
66%
Liquid Pressure
66%
Gas Pressure
66%
Foam Stability
66%
Three-step Test
66%
Industrial Application
33%
Aqueous Solution
33%
Sodium Dodecyl Sulfate
33%
High Strain Rate Deformation
33%
Everyday Life
33%
Biological Systems
33%
Food Industrial
33%
Industrial Processes
33%
Static Condition
33%
Elastic Energy
33%
Foam Pattern
33%
Qualitative Evaluation
33%
Surface Elasticity
33%
Retardation Effect
33%
Bamboo
33%
Foam Behavior
33%
Flow-focusing Device
33%
Two-row
33%
Critical Micellar Concentration
33%
Foamability
33%
Deformation Stage
33%
Negligible Hysteresis
33%
Deformation Phase
33%
Induced Cycle
33%
Process Line
33%
Engineering
Fluid Viscosity
100%
Liquid Pressure
100%
Gas Pressure
100%
Industrial Applications
50%
Aqueous Solution
50%
Biological System
50%
Static Condition
50%
Schematic Diagram
50%
Elastic Energy
50%
Microchannel
50%
Microfluidic Device
50%
Circuit Diagrams
50%
Everyday Life
50%
Retardation Effect
50%
Foam Stability
50%
Stability of Foam
50%
Process Lines
50%
Material Science
Surface (Surface Science)
100%
Sodium Dodecyl Sulfate
100%
Elasticity
100%
Chemical Engineering
Stability of Foam
100%