Shape and force analysis of capillary bridge between two slender structured surfaces

When a capillary bridge of a constant volume is formed between two surfaces, the shape of the liquid bridge will change as the separation between those surfaces is varied. To investigate the variable forces and Laplace pressure of the capillary bridge, as the shape the bridge evolves, a pseudo-three...

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Main Authors: Z. F. Zhu, J. Y. Jia, H. Z. Fu, Y. L. Chen, Z. Zeng, D. L. Yu
Format: Article
Language:English
Published: Copernicus Publications 2015-10-01
Series:Mechanical Sciences
Online Access:http://www.mech-sci.net/6/211/2015/ms-6-211-2015.pdf
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spelling doaj-06fc3b36484b4c1a8bd46d87b685f2152020-11-24T22:47:14ZengCopernicus PublicationsMechanical Sciences2191-91512191-916X2015-10-016221122010.5194/ms-6-211-2015Shape and force analysis of capillary bridge between two slender structured surfacesZ. F. Zhu0J. Y. Jia1H. Z. Fu2Y. L. Chen3Z. Zeng4D. L. Yu5School of Mechano-Electronic Engineering, Xidian University, Xi'an, ChinaSchool of Mechano-Electronic Engineering, Xidian University, Xi'an, ChinaZTE Corporation, Shenzhen, ChinaSchool of Mechano-Electronic Engineering, Xidian University, Xi'an, ChinaSchool of Mechano-Electronic Engineering, Xidian University, Xi'an, ChinaSchool of Mechano-Electronic Engineering, Xidian University, Xi'an, ChinaWhen a capillary bridge of a constant volume is formed between two surfaces, the shape of the liquid bridge will change as the separation between those surfaces is varied. To investigate the variable forces and Laplace pressure of the capillary bridge, as the shape the bridge evolves, a pseudo-three-dimensional force model of the capillary bridge is developed. Based on the characteristics of the slender structured surface, an efficient method is employed to directly solve the differential equations defining the shape of the capillary bridge. The spacing between the plates satisfying the liquid confined within the hydrophobic region of the structured surface is calculated. The method described in this paper can prevent meshing liquid surfaces such that, compared with Surface Evolver simulations, the computing speed is greatly improved. Finally, by comparing the results of the finite element simulations performed with Surface Evolver with those of the method employed in this paper, the practicality of the method is demonstrated.http://www.mech-sci.net/6/211/2015/ms-6-211-2015.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Z. F. Zhu
J. Y. Jia
H. Z. Fu
Y. L. Chen
Z. Zeng
D. L. Yu
spellingShingle Z. F. Zhu
J. Y. Jia
H. Z. Fu
Y. L. Chen
Z. Zeng
D. L. Yu
Shape and force analysis of capillary bridge between two slender structured surfaces
Mechanical Sciences
author_facet Z. F. Zhu
J. Y. Jia
H. Z. Fu
Y. L. Chen
Z. Zeng
D. L. Yu
author_sort Z. F. Zhu
title Shape and force analysis of capillary bridge between two slender structured surfaces
title_short Shape and force analysis of capillary bridge between two slender structured surfaces
title_full Shape and force analysis of capillary bridge between two slender structured surfaces
title_fullStr Shape and force analysis of capillary bridge between two slender structured surfaces
title_full_unstemmed Shape and force analysis of capillary bridge between two slender structured surfaces
title_sort shape and force analysis of capillary bridge between two slender structured surfaces
publisher Copernicus Publications
series Mechanical Sciences
issn 2191-9151
2191-916X
publishDate 2015-10-01
description When a capillary bridge of a constant volume is formed between two surfaces, the shape of the liquid bridge will change as the separation between those surfaces is varied. To investigate the variable forces and Laplace pressure of the capillary bridge, as the shape the bridge evolves, a pseudo-three-dimensional force model of the capillary bridge is developed. Based on the characteristics of the slender structured surface, an efficient method is employed to directly solve the differential equations defining the shape of the capillary bridge. The spacing between the plates satisfying the liquid confined within the hydrophobic region of the structured surface is calculated. The method described in this paper can prevent meshing liquid surfaces such that, compared with Surface Evolver simulations, the computing speed is greatly improved. Finally, by comparing the results of the finite element simulations performed with Surface Evolver with those of the method employed in this paper, the practicality of the method is demonstrated.
url http://www.mech-sci.net/6/211/2015/ms-6-211-2015.pdf
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