Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink

The goal of this study is to investigate the rotating Maxwell nanoliquid flow incorporating gyrotactic microbes with Newtonian heating and irregular heat source sink. The motion of the flow is induced due to linearly unidirectional elongated surface. The uniqueness of the flow is enhanced by the inc...

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Autores principales:	Yu-Ming Chu, Muhammad Ramzan, Naila Shaheen, Jae Dong Chung, Seifedine Kadry, Fares Howari, M.Y. Malik, Hassan Ali S. Ghazwani
Formato:	article
Lenguaje:	EN
Publicado:	Elsevier 2021
Materias:	Maxwell nanofluid Newtonian heating Rotating flow Gyrotactic microorganisms Higher order chemical reaction Science (General) Q1-390
Acceso en línea:	https://doaj.org/article/dcd7e9f55f2d4379b895565ff83eba72
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spelling	oai:doaj.org-article:dcd7e9f55f2d4379b895565ff83eba722021-11-18T04:44:21ZAnalysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink1018-364710.1016/j.jksus.2021.101645https://doaj.org/article/dcd7e9f55f2d4379b895565ff83eba722021-12-01T00:00:00Zhttp://www.sciencedirect.com/science/article/pii/S1018364721003074https://doaj.org/toc/1018-3647The goal of this study is to investigate the rotating Maxwell nanoliquid flow incorporating gyrotactic microbes with Newtonian heating and irregular heat source sink. The motion of the flow is induced due to linearly unidirectional elongated surface. The uniqueness of the flow is enhanced by the inclusion of additional phenomenon of higher order chemical reaction incorporated with Darcy Forchheimer flow, Fourier and Fick law. Numerical solution of the formulated problem is developed via bvp4c function in MATLAB. The influence of the embroiled parameters on the flow distribution is demonstrated through various graphs and tables. It is noticed that fluid velocity declines on incrementing the rotation parameter. An upsurge in thermal field is portrayed on augmenting the Newtonian heating. Comparative analysis of the results of the proposed model with previous published research is included which confirms the validity of the current model.Yu-Ming ChuMuhammad RamzanNaila ShaheenJae Dong ChungSeifedine KadryFares HowariM.Y. MalikHassan Ali S. GhazwaniElsevierarticleMaxwell nanofluidNewtonian heatingRotating flowGyrotactic microorganismsHigher order chemical reactionScience (General)Q1-390ENJournal of King Saud University: Science, Vol 33, Iss 8, Pp 101645- (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	Maxwell nanofluid Newtonian heating Rotating flow Gyrotactic microorganisms Higher order chemical reaction Science (General) Q1-390
spellingShingle	Maxwell nanofluid Newtonian heating Rotating flow Gyrotactic microorganisms Higher order chemical reaction Science (General) Q1-390 Yu-Ming Chu Muhammad Ramzan Naila Shaheen Jae Dong Chung Seifedine Kadry Fares Howari M.Y. Malik Hassan Ali S. Ghazwani Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
description	The goal of this study is to investigate the rotating Maxwell nanoliquid flow incorporating gyrotactic microbes with Newtonian heating and irregular heat source sink. The motion of the flow is induced due to linearly unidirectional elongated surface. The uniqueness of the flow is enhanced by the inclusion of additional phenomenon of higher order chemical reaction incorporated with Darcy Forchheimer flow, Fourier and Fick law. Numerical solution of the formulated problem is developed via bvp4c function in MATLAB. The influence of the embroiled parameters on the flow distribution is demonstrated through various graphs and tables. It is noticed that fluid velocity declines on incrementing the rotation parameter. An upsurge in thermal field is portrayed on augmenting the Newtonian heating. Comparative analysis of the results of the proposed model with previous published research is included which confirms the validity of the current model.
format	article
author	Yu-Ming Chu Muhammad Ramzan Naila Shaheen Jae Dong Chung Seifedine Kadry Fares Howari M.Y. Malik Hassan Ali S. Ghazwani
author_facet	Yu-Ming Chu Muhammad Ramzan Naila Shaheen Jae Dong Chung Seifedine Kadry Fares Howari M.Y. Malik Hassan Ali S. Ghazwani
author_sort	Yu-Ming Chu
title	Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
title_short	Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
title_full	Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
title_fullStr	Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
title_full_unstemmed	Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
title_sort	analysis of newtonian heating and higher-order chemical reaction on a maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink
publisher	Elsevier
publishDate	2021
url	https://doaj.org/article/dcd7e9f55f2d4379b895565ff83eba72
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Analysis of Newtonian heating and higher-order chemical reaction on a Maxwell nanofluid in a rotating frame with gyrotactic microorganisms and variable heat source/sink

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