Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer

This paper reports a numerical study on mixed convection within a square enclosure, filled with a mixture of water and Cu (or Ag) nanoparticles. It is assumed that the temperature difference driving the convection comes from the side moving walls, when both horizontal walls are kept insulated. In or...

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Main Authors: Boutra Abdelkader, Ragui Karim, Labsi Nabila, Benkahla Youb Khaled
Format: Article
Language:English
Published: De Gruyter 2015-06-01
Series:Open Engineering
Subjects:
Online Access:http://www.degruyter.com/view/j/eng.2015.5.issue-1/eng-2015-0028/eng-2015-0028.xml?format=INT
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spelling doaj-f21fb892d6cc4354823b8df4702c2e922020-11-24T21:55:48ZengDe GruyterOpen Engineering2391-54392015-06-015110.1515/eng-2015-0028eng-2015-0028Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat TransferBoutra Abdelkader0Ragui Karim1Labsi Nabila2Benkahla Youb Khaled3Laboratory of Transfer Phenomenon, University of Sciences and Technology Houari Boumediene BP. 32 El Alia, 16111 Bab Ezzouar, Algiers, AlgeriaLaboratory of Transfer Phenomenon, University of Sciences and Technology Houari Boumediene BP. 32 El Alia, 16111 Bab Ezzouar, Algiers, AlgeriaLaboratory of Transfer Phenomenon, University of Sciences and Technology Houari Boumediene BP. 32 El Alia, 16111 Bab Ezzouar, Algiers, AlgeriaLaboratory of Transfer Phenomenon, University of Sciences and Technology Houari Boumediene BP. 32 El Alia, 16111 Bab Ezzouar, Algiers, AlgeriaThis paper reports a numerical study on mixed convection within a square enclosure, filled with a mixture of water and Cu (or Ag) nanoparticles. It is assumed that the temperature difference driving the convection comes from the side moving walls, when both horizontal walls are kept insulated. In order to solve the general coupled equations, a code based on the finite volume method is used and it has been validated after comparison between the present results and those of the literature. To make clear the effect of the main parameters on fluid flow and heat transfer inside the enclosure, a wide range of the Richardson number, taken from 0.01 to 100, the nanoparticles volume fraction (0% to 10%), and the cavity inclination angle (0º to 180º) are investigated. The phenomenon is analyzed through streamlines and isotherm plots, with special attention to the Nusselt number.http://www.degruyter.com/view/j/eng.2015.5.issue-1/eng-2015-0028/eng-2015-0028.xml?format=INTmixed convection lid-driven cavity Cu and Ag nanoparticles water base fluidfinite volume method
collection DOAJ
language English
format Article
sources DOAJ
author Boutra Abdelkader
Ragui Karim
Labsi Nabila
Benkahla Youb Khaled
spellingShingle Boutra Abdelkader
Ragui Karim
Labsi Nabila
Benkahla Youb Khaled
Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
Open Engineering
mixed convection
lid-driven cavity
Cu and Ag nanoparticles
water base fluid
finite volume method
author_facet Boutra Abdelkader
Ragui Karim
Labsi Nabila
Benkahla Youb Khaled
author_sort Boutra Abdelkader
title Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
title_short Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
title_full Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
title_fullStr Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
title_full_unstemmed Lid-Driven and Inclined Square Cavity Filled With a Nanofluid: Optimum Heat Transfer
title_sort lid-driven and inclined square cavity filled with a nanofluid: optimum heat transfer
publisher De Gruyter
series Open Engineering
issn 2391-5439
publishDate 2015-06-01
description This paper reports a numerical study on mixed convection within a square enclosure, filled with a mixture of water and Cu (or Ag) nanoparticles. It is assumed that the temperature difference driving the convection comes from the side moving walls, when both horizontal walls are kept insulated. In order to solve the general coupled equations, a code based on the finite volume method is used and it has been validated after comparison between the present results and those of the literature. To make clear the effect of the main parameters on fluid flow and heat transfer inside the enclosure, a wide range of the Richardson number, taken from 0.01 to 100, the nanoparticles volume fraction (0% to 10%), and the cavity inclination angle (0º to 180º) are investigated. The phenomenon is analyzed through streamlines and isotherm plots, with special attention to the Nusselt number.
topic mixed convection
lid-driven cavity
Cu and Ag nanoparticles
water base fluid
finite volume method
url http://www.degruyter.com/view/j/eng.2015.5.issue-1/eng-2015-0028/eng-2015-0028.xml?format=INT
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AT raguikarim liddrivenandinclinedsquarecavityfilledwithananofluidoptimumheattransfer
AT labsinabila liddrivenandinclinedsquarecavityfilledwithananofluidoptimumheattransfer
AT benkahlayoubkhaled liddrivenandinclinedsquarecavityfilledwithananofluidoptimumheattransfer
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