Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux

In the present work, entropy generation in the flow and heat transfer of couple stress fluid through an infinite inclined channel embedded in a saturated porous medium is presented. Due to the channel geometry, the asymmetrical slip conditions are imposed on the channel walls. The upper wall of the...

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Main Authors: Samuel Olumide Adesanya, Michael Bamidele Fakoya
Format: Article
Language:English
Published: MDPI AG 2017-09-01
Series:Entropy
Subjects:
Online Access:https://www.mdpi.com/1099-4300/19/9/498
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spelling doaj-c43d6b4cd7bf432d8f8a19271d33a6732020-11-24T21:43:35ZengMDPI AGEntropy1099-43002017-09-0119949810.3390/e19090498e19090498Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat FluxSamuel Olumide Adesanya0Michael Bamidele Fakoya1Africa Centre for Sustainability Accounting and Management, School of Accountancy, University of Limpopo, Sovenga 0727, South AfricaAfrica Centre for Sustainability Accounting and Management, School of Accountancy, University of Limpopo, Sovenga 0727, South AfricaIn the present work, entropy generation in the flow and heat transfer of couple stress fluid through an infinite inclined channel embedded in a saturated porous medium is presented. Due to the channel geometry, the asymmetrical slip conditions are imposed on the channel walls. The upper wall of the channel is subjected to a constant heat flux while the lower wall is insulated. The equations governing the fluid flow are formulated, non-dimensionalized and solved by using the Adomian decomposition method. The Adomian series solutions for the velocity and temperature fields are then used to compute the entropy generation rate and inherent heat irreversibility in the flow domain. The effects of various fluid parameters are presented graphically and discussed extensively.https://www.mdpi.com/1099-4300/19/9/498porous mediumcouple stressesconstant heat fluxentropy generation
collection DOAJ
language English
format Article
sources DOAJ
author Samuel Olumide Adesanya
Michael Bamidele Fakoya
spellingShingle Samuel Olumide Adesanya
Michael Bamidele Fakoya
Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
Entropy
porous medium
couple stresses
constant heat flux
entropy generation
author_facet Samuel Olumide Adesanya
Michael Bamidele Fakoya
author_sort Samuel Olumide Adesanya
title Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
title_short Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
title_full Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
title_fullStr Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
title_full_unstemmed Second Law Analysis for Couple Stress Fluid Flow through a Porous Medium with Constant Heat Flux
title_sort second law analysis for couple stress fluid flow through a porous medium with constant heat flux
publisher MDPI AG
series Entropy
issn 1099-4300
publishDate 2017-09-01
description In the present work, entropy generation in the flow and heat transfer of couple stress fluid through an infinite inclined channel embedded in a saturated porous medium is presented. Due to the channel geometry, the asymmetrical slip conditions are imposed on the channel walls. The upper wall of the channel is subjected to a constant heat flux while the lower wall is insulated. The equations governing the fluid flow are formulated, non-dimensionalized and solved by using the Adomian decomposition method. The Adomian series solutions for the velocity and temperature fields are then used to compute the entropy generation rate and inherent heat irreversibility in the flow domain. The effects of various fluid parameters are presented graphically and discussed extensively.
topic porous medium
couple stresses
constant heat flux
entropy generation
url https://www.mdpi.com/1099-4300/19/9/498
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