Scinovex
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Quick deposition of a fluid on the wall of a tube

Physics of Fluids · 2000 · Vol. 12(10) · pp. 2367–2371
Pascale AussillousDavid Quéré

Abstract

We are interested in the amount of fluid left behind a drop moved inside a capillary tube. Long ago, Taylor showed that for very viscous liquids moved at small velocities, the film thickness is a monotonic increasing function of the capillary number. New data obtained with liquids of low viscosity are reported here and compared with Taylor’s law. Two successive effects are observed: above a threshold in capillary number, the film is thicker than a Taylor film; at a very high speed, the deposition law becomes a decreasing function of the drop velocity. Both behaviors are analyzed thanks to scaling arguments and shown to be consequences of inertia.

Innovative Microfluidic and Catalytic Techniques InnovationFluid Dynamics and Thin FilmsFluid Dynamics and Heat TransferCapillary actionPhysicsMechanicsInertiaCapillary numberScaling lawScalingDrop (telecommunication)ViscosityTube (container)
Citations
750
FWCI
1.48
field-weighted impact
References
7
Percentile
82%
vs. same field & year
Citations per year
References
The motion of long bubbles in tubes
Journal of Fluid Mechanics · 1961 · 2,245 citations
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