Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity

The main goal of this research is to present the concept of enhancing heat transfer within emerging technology. To achieve this, tiny metal and nonmetal particles ranging from 1 to 100 nm in size are introduced into base liquids. These nanoscale particles are utilized to improve the thermal performa...

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Main Authors: Rehman, Ali, Ma, Chau Khun, Salleh, Zabidin, Khan, Waris, Albely, Maryam Sulaiman, Jan, Rashid, Alhabeeb, Somayah Abdualziz
Format: Article
Language:English
Published: Elsevier Ltd 2023
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Online Access:http://eprints.utm.my/107571/1/MaChauKhun2023_AnalyticalStudyOnCoupleStressFlow.pdf
http://eprints.utm.my/107571/
http://dx.doi.org/10.1016/j.heliyon.2023.e22491
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spelling my.utm.1075712024-09-23T06:17:27Z http://eprints.utm.my/107571/ Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity Rehman, Ali Ma, Chau Khun Salleh, Zabidin Khan, Waris Albely, Maryam Sulaiman Jan, Rashid Alhabeeb, Somayah Abdualziz TA Engineering (General). Civil engineering (General) The main goal of this research is to present the concept of enhancing heat transfer within emerging technology. To achieve this, tiny metal and nonmetal particles ranging from 1 to 100 nm in size are introduced into base liquids. These nanoscale particles are utilized to improve the thermal performance of the liquids, leading to what are termed nanofluids. The utilization of these fluids and the examination of the flow of thin films have valuable implications across various sectors such as engineering, technology, and industries. This research focuses on analyzing the convective flow behavior of nanofluids, specifically, graphene oxide-ethylene glycol (GO-EG) and graphene oxide-water (GO-W) on a moving surface. The study investigates the impacts of magnetic fields and varying viscosity. By making use of the thermophysical characteristics of the base fluid and the nanofluid, as well as implementing a similarity transformation within the fundamental equations that govern energy and momentum, we formulate a 5th order nonlinear ordinary differential equation (NODE) to describe the velocity profile. This is combined with a second-order NODE that describes the distribution of temperature. To solve this derived NODE, we employ a method known as the Homotopy Analysis Method (HAM) for analytical solution. The impact of the relevant factors, Prandtl number, including magnetic field parameter, thickness of the liquid, couple stress parameter, temperature distribution, dynamic viscosity, and Eckert number, on the skin friction, velocity profile, and Nusselt's number are interrogated through graphical representation. The velocity field exhibits a decline as the couple stress parameter, magnetic field parameter, liquid thickness, and dynamic viscosity experience an increase. Conversely, the temperature field displays a rise as the Eckert number and dynamic viscosity experience an increase. To ensure the convergence of the issue, dual solutions of the problem are employed, and this is verified through the utilization graphs and tables. Due to the considerable challenge encountered in heat transfer applications for cooling diverse equipment and devices across industries like automotive, microelectronics, defense, and manufacturing, there is a strong expectation that this theoretical methodology could make a favorable contribution towards enhancing heat transfer efficiency. This improvement is sought to meet the requirements of the manufacturing and engineering sectors. Elsevier Ltd 2023 Article PeerReviewed application/pdf en http://eprints.utm.my/107571/1/MaChauKhun2023_AnalyticalStudyOnCoupleStressFlow.pdf Rehman, Ali and Ma, Chau Khun and Salleh, Zabidin and Khan, Waris and Albely, Maryam Sulaiman and Jan, Rashid and Alhabeeb, Somayah Abdualziz (2023) Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity. Heliyon, 9 (12). pp. 1-14. ISSN 2405-8440 http://dx.doi.org/10.1016/j.heliyon.2023.e22491 DOI : 10.1016/j.heliyon.2023.e22491
institution Universiti Teknologi Malaysia
building UTM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Teknologi Malaysia
content_source UTM Institutional Repository
url_provider http://eprints.utm.my/
language English
topic TA Engineering (General). Civil engineering (General)
spellingShingle TA Engineering (General). Civil engineering (General)
Rehman, Ali
Ma, Chau Khun
Salleh, Zabidin
Khan, Waris
Albely, Maryam Sulaiman
Jan, Rashid
Alhabeeb, Somayah Abdualziz
Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
description The main goal of this research is to present the concept of enhancing heat transfer within emerging technology. To achieve this, tiny metal and nonmetal particles ranging from 1 to 100 nm in size are introduced into base liquids. These nanoscale particles are utilized to improve the thermal performance of the liquids, leading to what are termed nanofluids. The utilization of these fluids and the examination of the flow of thin films have valuable implications across various sectors such as engineering, technology, and industries. This research focuses on analyzing the convective flow behavior of nanofluids, specifically, graphene oxide-ethylene glycol (GO-EG) and graphene oxide-water (GO-W) on a moving surface. The study investigates the impacts of magnetic fields and varying viscosity. By making use of the thermophysical characteristics of the base fluid and the nanofluid, as well as implementing a similarity transformation within the fundamental equations that govern energy and momentum, we formulate a 5th order nonlinear ordinary differential equation (NODE) to describe the velocity profile. This is combined with a second-order NODE that describes the distribution of temperature. To solve this derived NODE, we employ a method known as the Homotopy Analysis Method (HAM) for analytical solution. The impact of the relevant factors, Prandtl number, including magnetic field parameter, thickness of the liquid, couple stress parameter, temperature distribution, dynamic viscosity, and Eckert number, on the skin friction, velocity profile, and Nusselt's number are interrogated through graphical representation. The velocity field exhibits a decline as the couple stress parameter, magnetic field parameter, liquid thickness, and dynamic viscosity experience an increase. Conversely, the temperature field displays a rise as the Eckert number and dynamic viscosity experience an increase. To ensure the convergence of the issue, dual solutions of the problem are employed, and this is verified through the utilization graphs and tables. Due to the considerable challenge encountered in heat transfer applications for cooling diverse equipment and devices across industries like automotive, microelectronics, defense, and manufacturing, there is a strong expectation that this theoretical methodology could make a favorable contribution towards enhancing heat transfer efficiency. This improvement is sought to meet the requirements of the manufacturing and engineering sectors.
format Article
author Rehman, Ali
Ma, Chau Khun
Salleh, Zabidin
Khan, Waris
Albely, Maryam Sulaiman
Jan, Rashid
Alhabeeb, Somayah Abdualziz
author_facet Rehman, Ali
Ma, Chau Khun
Salleh, Zabidin
Khan, Waris
Albely, Maryam Sulaiman
Jan, Rashid
Alhabeeb, Somayah Abdualziz
author_sort Rehman, Ali
title Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
title_short Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
title_full Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
title_fullStr Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
title_full_unstemmed Analytical study on couple stress flow of GO-EG and GO-W nanofluid over an extending cylinder along with variable viscosity
title_sort analytical study on couple stress flow of go-eg and go-w nanofluid over an extending cylinder along with variable viscosity
publisher Elsevier Ltd
publishDate 2023
url http://eprints.utm.my/107571/1/MaChauKhun2023_AnalyticalStudyOnCoupleStressFlow.pdf
http://eprints.utm.my/107571/
http://dx.doi.org/10.1016/j.heliyon.2023.e22491
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score 13.211869