Force on a Small Particle Attached to a Plane Wall in a Hiemenz Straining Flow

The force acting on a spherical particle fixed to a wall and immersed in an axisymmetric straining flow is examined for small Reynolds numbers. The steady, incompressible flow field is computed using an axisymmetric finite-volume method over conditions spanning five decades in the Reynolds number. T...

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Veröffentlicht in:Journal of fluids engineering 2012-11, Vol.134 (11), p.1-5
Hauptverfasser: Maynard, A. B, Marshall, J. S
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Marshall, J. S
description The force acting on a spherical particle fixed to a wall and immersed in an axisymmetric straining flow is examined for small Reynolds numbers. The steady, incompressible flow field is computed using an axisymmetric finite-volume method over conditions spanning five decades in the Reynolds number. The flow is characterized by the formation of a vortex ring structure in the wedge region formed between the particle lower surface and the plane wall. A power law expression for the dimensionless particle force is obtained as a function of the Reynolds number, which is found to hold with excellent accuracy for Reynolds numbers below about 0.1.
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subjects Applied sciences
Atmospheric pollution
Axisymmetric
Computational fluid dynamics
Exact sciences and technology
Fluid flow
General processes of purification and dust removal
Incompressible flow
Planes
Pollution
Prevention and purification methods
Reynolds number
Walls
Wedges
title Force on a Small Particle Attached to a Plane Wall in a Hiemenz Straining Flow
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