Steady thermocapillary-buoyant convection in a shallow annular pool. Part 1:Single layer fluid

This paper examines the steady thermocapillarybuoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic theory is used to obtain the asymptotic solutions of the flow and thermal fields in the case of small aspect ratios,which is defined as the rati...

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Published inActa mechanica Sinica Vol. 27; no. 3; pp. 360 - 370
Main Authors Li, You-Rong, Wang, Shuang-Cheng, Wu, Chuan-Mei
Format Journal Article
LanguageEnglish
Published Heidelberg The Chinese Society of Theoretical and Applied Mechanics; Institute of Mechanics, Chinese Academy of Sciences 01.06.2011
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ISSN0567-7718
1614-3116
DOI10.1007/s10409-011-0450-6

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Abstract This paper examines the steady thermocapillarybuoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic theory is used to obtain the asymptotic solutions of the flow and thermal fields in the case of small aspect ratios,which is defined as the ratio of the layer thickness to the gap width. The flow domain is divided into the core region away from the cylinder walls and two end regions near each cylinder wall. Asymptotic solutions are obtained in the core region by solving the core and end flows separately and then joining them through matched asymptotic expansions. For the system of silicon melt,the asymptotic solutions are compared with the results of numerical simulations. It is found that the two kinds of solutions have a good agreement in the core region for a small aspect ratio. With the increase of aspect ratio,the applicability of the present asymptotic solutions decreases gradually.
AbstractList This paper examines the steady thermocapillarybuoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic theory is used to obtain the asymptotic solutions of the flow and thermal fields in the case of small aspect ratios, which is defined as the ratio of the layer thickness to the gap width. The flow domain is divided into the core region away from the cylinder walls and two end regions near each cylinder wall. Asymptotic solutions are obtained in the core region by solving the core and end flows separately and then joining them through matched asymptotic expansions. For the system of silicon melt, the asymptotic solutions are compared with the results of numerical simulations. It is found that the two kinds of solutions have a good agreement in the core region for a small aspect ratio. With the increase of aspect ratio, the applicability of the present asymptotic solutions decreases gradually.
This paper examines the steady thermocapillary-buoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic theory is used to obtain the asymptotic solutions of the flow and thermal fields in the case of small aspect ratios, which is defined as the ratio of the layer thickness to the gap width. The flow domain is divided into the core region away from the cylinder walls and two end regions near each cylinder wall. Asymptotic solutions are obtained in the core region by solving the core and end flows separately and then joining them through matched asymptotic expansions. For the system of silicon melt, the asymptotic solutions are compared with the results of numerical simulations. It is found that the two kinds of solutions have a good agreement in the core region for a small aspect ratio. With the increase of aspect ratio, the applicability of the present asymptotic solutions decreases gradually.
Author You-Rong Li Shuang-Cheng Wang Chuan-Mei Wu
AuthorAffiliation College of Power Engineering, Chongqing University, 400044 Chongqing, China Key Laboratory of Low-grade Energy Utilization Technologies and Systems, Ministry of Education,400044 Chongqing, China
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Issue 3
Keywords Annular shallow pool
Asymptotic solution
Thermocapillary-buoyant flow
Single layer fluid
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Notes Thermocapillary-buoyant flow. Annular shallow pool. Single layer fluid. Asymptotic solution
11-2063/O3
This paper examines the steady thermocapillarybuoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic theory is used to obtain the asymptotic solutions of the flow and thermal fields in the case of small aspect ratios,which is defined as the ratio of the layer thickness to the gap width. The flow domain is divided into the core region away from the cylinder walls and two end regions near each cylinder wall. Asymptotic solutions are obtained in the core region by solving the core and end flows separately and then joining them through matched asymptotic expansions. For the system of silicon melt,the asymptotic solutions are compared with the results of numerical simulations. It is found that the two kinds of solutions have a good agreement in the core region for a small aspect ratio. With the increase of aspect ratio,the applicability of the present asymptotic solutions decreases gradually.
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Snippet This paper examines the steady thermocapillarybuoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic...
This paper examines the steady thermocapillary-buoyant convection in a shallow annular pool subjected to a radial temperature gradient. A matched asymptotic...
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chongqing
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SubjectTerms Annular
Aspect ratio
Asymptotic properties
Classical and Continuum Physics
Computational Intelligence
Convection
Cylinders
Engineering
Engineering Fluid Dynamics
Mathematical models
Pools
Research Paper
Theoretical and Applied Mechanics
Walls
匹配渐近展开
单层
径向温度梯度
浮力对流
渐近解
环形浅池
稳定
长宽比
Title Steady thermocapillary-buoyant convection in a shallow annular pool. Part 1:Single layer fluid
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https://link.springer.com/article/10.1007/s10409-011-0450-6
https://www.proquest.com/docview/914622699
Volume 27
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