Detachment of droplets from cylinders in flow using an experimental analogue

This work experimentally examines the detachment of liquid droplets from both oleophilic and oleophobic fibres, using an atomic force microscope. The droplet detachment force was found to increase with increasing fibre diameter and forces were higher for philic fibres than phobic fibres. We also con...

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Main Authors: Hotz, C., Mead-Hunter, Ryan, Becker, Thomas, King, A., Wurster, S., Kasper, G., Mullins, B.
Format: Journal Article
Published: Cambridge University Press 2015
Online Access:http://hdl.handle.net/20.500.11937/38137
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author Hotz, C.
Mead-Hunter, Ryan
Becker, Thomas
King, A.
Wurster, S.
Kasper, G.
Mullins, B.
author_facet Hotz, C.
Mead-Hunter, Ryan
Becker, Thomas
King, A.
Wurster, S.
Kasper, G.
Mullins, B.
author_sort Hotz, C.
building Curtin Institutional Repository
collection Online Access
description This work experimentally examines the detachment of liquid droplets from both oleophilic and oleophobic fibres, using an atomic force microscope. The droplet detachment force was found to increase with increasing fibre diameter and forces were higher for philic fibres than phobic fibres. We also considered the detachment of droplets situated on the intersection of two fibres and arrays of fibres (such as found in fibrous mats or filters) and found that the required detachment forces were higher than for similarly sized droplets on a single fibre, though not as high as expected based on theory. A model was developed to predict the detachment force, from single fibres, which agreed well with experimental results. It was found that the entire dataset (single and multiple fibres) could be best described by power law relationships.
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format Journal Article
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T08:53:08Z
publishDate 2015
publisher Cambridge University Press
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spelling curtin-20.500.11937-381372017-09-13T14:14:26Z Detachment of droplets from cylinders in flow using an experimental analogue Hotz, C. Mead-Hunter, Ryan Becker, Thomas King, A. Wurster, S. Kasper, G. Mullins, B. This work experimentally examines the detachment of liquid droplets from both oleophilic and oleophobic fibres, using an atomic force microscope. The droplet detachment force was found to increase with increasing fibre diameter and forces were higher for philic fibres than phobic fibres. We also considered the detachment of droplets situated on the intersection of two fibres and arrays of fibres (such as found in fibrous mats or filters) and found that the required detachment forces were higher than for similarly sized droplets on a single fibre, though not as high as expected based on theory. A model was developed to predict the detachment force, from single fibres, which agreed well with experimental results. It was found that the entire dataset (single and multiple fibres) could be best described by power law relationships. 2015 Journal Article http://hdl.handle.net/20.500.11937/38137 10.1017/jfm.2015.177 Cambridge University Press restricted
spellingShingle Hotz, C.
Mead-Hunter, Ryan
Becker, Thomas
King, A.
Wurster, S.
Kasper, G.
Mullins, B.
Detachment of droplets from cylinders in flow using an experimental analogue
title Detachment of droplets from cylinders in flow using an experimental analogue
title_full Detachment of droplets from cylinders in flow using an experimental analogue
title_fullStr Detachment of droplets from cylinders in flow using an experimental analogue
title_full_unstemmed Detachment of droplets from cylinders in flow using an experimental analogue
title_short Detachment of droplets from cylinders in flow using an experimental analogue
title_sort detachment of droplets from cylinders in flow using an experimental analogue
url http://hdl.handle.net/20.500.11937/38137