Bioconvection analysis of EMHD and dissipative Williamson nanofluid over a three dimensional Riga plate with Joule heating effect

IF 3.1 Q1 ENGINEERING, MULTIDISCIPLINARY INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION Pub Date : 2023-10-20 DOI:10.1080/02286203.2023.2265524
Mojeed T. Akolade, Tayyaba Akhtar, Mohamed M. Awad, Yusuf O. Tijani, Adeshina T. Adeosun
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To simplify the phenomenon of suspended nanoparticles’ bioconvection, an appropriate similarity transformation is applied, converting the system of partial differential equations (PDEs) into systems of ordinary differential equations (ODEs). To analyze the governing flow parameters, the numerical approach, Galerkin Weighted Residual Method (GWRM), is employed. The results are presented through tables and graphs, providing valuable insights. The findings of the study highlight that Hartmann number improves the weak movement of the Williamson fluid, thermophoresis number positively affects all flow distributions. Moreover, the temperature field is influenced by Brownian motion, leading to inflation, while the concentration field experiences a decrease due to a lower number of fluid particles available for reaction. Furthermore, higher buoyancy forces indicate significant fluid movement, resulting in a reduction in the Williamson fluid chemical reaction rate.KEYWORDS: Gyrotactic microorganismsWilliamson fluidGalerkin methodNanoscienceEMHDRiga plate Nomenclature j0=current density [A/L2]M0=surface magnetic property [Wb/L2]μ=variable fluid viscosity [kgL−1s−1]C=fluid concentration [mol.]ρ=fluid density [Kgm−3]ν=kinematic viscosity [L2/s]β4=material constant [-]β1=viscosity parameterNt=Thermophoresis number [-]Sc=Schmidt number [-]K=Williamson fluid parameter [-]Gn=Gyrotatic Grashof number [-]Ec=Local Eckert number [-]λ=chemical reaction parameter [-]Tw=temperature density [K]Cw=concentration density [mol.L−3]C∞=free stream concentration [mol.L−3]w=velocity component in the z− [Ls−1]u=velocity component in the x− direction [LS−1]Kr=rate of reaction [S−1]ρf=density of the fluid [Kg/L3]r0=diameter of the magnets [L]Do=mass diffusivity[L2/s]T=fluid temperature [K]Cp=specific heat capacity [J/kg.K]Ha=modified Hartman number [-]β2=thermal conductivity [WL−1K−1]Nb=Brownian motion [-]β5=stretching ratio [-]Pr=Prandtl number [-]Gr=thermal Grashof number [-]χ=bioconvection constant [-]Le=Lewis number [-]Pe=Peclet number [-]Nw=motile density [mol.Kg−1]T∞=free stream temperature [K]N∞=free Stream motile microorganisms [mol.Kg−1]v=velocity component in the y− direction [LS−1]x,y,z=cartesian coordinate system [L]AcknowledgmentsThe authors appreciates and acknowledge the reviewers for their constructive comments. Thanks you for your time.Disclosure statementNo potential conflict of interest was reported by the author(s).Additional informationNotes on contributorsMojeed T. AkoladeMojeed T. Akolade is a doctoral student at the Department of Mathematics, University of Ilorin, Ilorin, Nigeria, and an Assistant Lecturer at the Department of Mathematical and Computing Science, Thomas Adewumi University, Oko, Kwara State, Nigeria. His research interest includes, fluid mechanics, thermodynamics analysis, squeezing flow, non-Newtonian fluid flow, sensitivity analysis, numerical, and statistical analysis of fluid flow problems, and has authored and co-authored numerous journal articles.Tayyaba AkhtarTayyaba Akhtar is from the historic town, Sangla Hill located in the Nankana Sahib district of Punjab, Pakistan. She has been working as a visiting Lecturer in the Department of Mathematics since 2022 to present. She graduated from the reputed institute Government College University, Faisalabad, Pakistan. Her research interests are Numerical Simulation, Heat and mass flows, radiations Porous Media, MHD flow, Microorganism, Nanofluids, and differential equations. She participated in many national/international conferences/seminars.Mohamed M. AwadProf. Dr. Mohamed M. Awad is an associate professor at the Mechanical Power Engineering Department, Faculty of Engineering, Mansoura University, Egypt. He was also a recipient of the ASME International Petroleum Technology Institute (IPTI) Award in 2005 and 2006. He won a silver medal at the 45th International Exhibition of Inventions, Geneva, Swiss, 29 March - 2 April 2017. Currently, he is the Regional Editor of Africa and Australia, the Editorial Board, of the Journal of Thermal Engineering, Yildiz Technical University Press, Turkey & Editorial Board Member of the International Journal of Oil, Gas and Coal Engineering & Editorial Board Member of International Journal of Petroleum Technology. He received his Ph.D. from Memorial University of Newfoundland in 2007 and his undergraduate degree and his master’s degree from Mansoura University, Egypt, in 1996 and 2000, respectively. His research focus is on the development of robust models for characterizing transport phenomena using fundamental theory. These models are validated using experimental and/or numerical results. He is the author of 3 book chapters. He has published more than 65 papers in refereed journals and conference proceedings in these areas. Presently, his research is focused on the modeling of complex fluid dynamics and heat transfer problems in internal flows. These include transport in porous media, compact heat exchangers, two-phase flow, microchannel flows, non-Newtonian flows, and thermal design/optimization of energy systems. He is a member of the American Society of Mechanical Engineers (ASME).Yusuf O. TijaniYusuf O. Tijani is an avid lover of research and teaching.Adeshina T. AdeosunAdeshina T. Adeosun obtained a Master of Science degree in Analytical Dynamics from the University of Ilorin, Nigeria. He later got a Ph.D. in Fluid Mechanics from the same University, and a now a Lecturer at the Department of Mathematics, Federal College of Education, Iwo, Nigeria. 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Abstract

ABSTRACTThe current study investigates the weakly hydromagnetic and bioconvection nanofluid flow of Williamson fluid, which conveys gyrotactic microorganisms, over a three-dimensional Riga surface. The primary objective is to stabilize biological, mechanical, and thermal systems through the introduction of exponentially decaying rheology in both the momentum and energy equations, known as the electro-magneto-hydrodynamic actuator (EMHD). As such, the working fluid is assumed to be dissipative, with significant consideration given to the magnetic Reynolds number and a higher-order reaction rate. To simplify the phenomenon of suspended nanoparticles’ bioconvection, an appropriate similarity transformation is applied, converting the system of partial differential equations (PDEs) into systems of ordinary differential equations (ODEs). To analyze the governing flow parameters, the numerical approach, Galerkin Weighted Residual Method (GWRM), is employed. The results are presented through tables and graphs, providing valuable insights. The findings of the study highlight that Hartmann number improves the weak movement of the Williamson fluid, thermophoresis number positively affects all flow distributions. Moreover, the temperature field is influenced by Brownian motion, leading to inflation, while the concentration field experiences a decrease due to a lower number of fluid particles available for reaction. Furthermore, higher buoyancy forces indicate significant fluid movement, resulting in a reduction in the Williamson fluid chemical reaction rate.KEYWORDS: Gyrotactic microorganismsWilliamson fluidGalerkin methodNanoscienceEMHDRiga plate Nomenclature j0=current density [A/L2]M0=surface magnetic property [Wb/L2]μ=variable fluid viscosity [kgL−1s−1]C=fluid concentration [mol.]ρ=fluid density [Kgm−3]ν=kinematic viscosity [L2/s]β4=material constant [-]β1=viscosity parameterNt=Thermophoresis number [-]Sc=Schmidt number [-]K=Williamson fluid parameter [-]Gn=Gyrotatic Grashof number [-]Ec=Local Eckert number [-]λ=chemical reaction parameter [-]Tw=temperature density [K]Cw=concentration density [mol.L−3]C∞=free stream concentration [mol.L−3]w=velocity component in the z− [Ls−1]u=velocity component in the x− direction [LS−1]Kr=rate of reaction [S−1]ρf=density of the fluid [Kg/L3]r0=diameter of the magnets [L]Do=mass diffusivity[L2/s]T=fluid temperature [K]Cp=specific heat capacity [J/kg.K]Ha=modified Hartman number [-]β2=thermal conductivity [WL−1K−1]Nb=Brownian motion [-]β5=stretching ratio [-]Pr=Prandtl number [-]Gr=thermal Grashof number [-]χ=bioconvection constant [-]Le=Lewis number [-]Pe=Peclet number [-]Nw=motile density [mol.Kg−1]T∞=free stream temperature [K]N∞=free Stream motile microorganisms [mol.Kg−1]v=velocity component in the y− direction [LS−1]x,y,z=cartesian coordinate system [L]AcknowledgmentsThe authors appreciates and acknowledge the reviewers for their constructive comments. Thanks you for your time.Disclosure statementNo potential conflict of interest was reported by the author(s).Additional informationNotes on contributorsMojeed T. AkoladeMojeed T. Akolade is a doctoral student at the Department of Mathematics, University of Ilorin, Ilorin, Nigeria, and an Assistant Lecturer at the Department of Mathematical and Computing Science, Thomas Adewumi University, Oko, Kwara State, Nigeria. His research interest includes, fluid mechanics, thermodynamics analysis, squeezing flow, non-Newtonian fluid flow, sensitivity analysis, numerical, and statistical analysis of fluid flow problems, and has authored and co-authored numerous journal articles.Tayyaba AkhtarTayyaba Akhtar is from the historic town, Sangla Hill located in the Nankana Sahib district of Punjab, Pakistan. She has been working as a visiting Lecturer in the Department of Mathematics since 2022 to present. She graduated from the reputed institute Government College University, Faisalabad, Pakistan. Her research interests are Numerical Simulation, Heat and mass flows, radiations Porous Media, MHD flow, Microorganism, Nanofluids, and differential equations. She participated in many national/international conferences/seminars.Mohamed M. AwadProf. Dr. Mohamed M. Awad is an associate professor at the Mechanical Power Engineering Department, Faculty of Engineering, Mansoura University, Egypt. He was also a recipient of the ASME International Petroleum Technology Institute (IPTI) Award in 2005 and 2006. He won a silver medal at the 45th International Exhibition of Inventions, Geneva, Swiss, 29 March - 2 April 2017. Currently, he is the Regional Editor of Africa and Australia, the Editorial Board, of the Journal of Thermal Engineering, Yildiz Technical University Press, Turkey & Editorial Board Member of the International Journal of Oil, Gas and Coal Engineering & Editorial Board Member of International Journal of Petroleum Technology. He received his Ph.D. from Memorial University of Newfoundland in 2007 and his undergraduate degree and his master’s degree from Mansoura University, Egypt, in 1996 and 2000, respectively. His research focus is on the development of robust models for characterizing transport phenomena using fundamental theory. These models are validated using experimental and/or numerical results. He is the author of 3 book chapters. He has published more than 65 papers in refereed journals and conference proceedings in these areas. Presently, his research is focused on the modeling of complex fluid dynamics and heat transfer problems in internal flows. These include transport in porous media, compact heat exchangers, two-phase flow, microchannel flows, non-Newtonian flows, and thermal design/optimization of energy systems. He is a member of the American Society of Mechanical Engineers (ASME).Yusuf O. TijaniYusuf O. Tijani is an avid lover of research and teaching.Adeshina T. AdeosunAdeshina T. Adeosun obtained a Master of Science degree in Analytical Dynamics from the University of Ilorin, Nigeria. He later got a Ph.D. in Fluid Mechanics from the same University, and a now a Lecturer at the Department of Mathematics, Federal College of Education, Iwo, Nigeria. His research interest is in Computational Fluid Dynamics and Modelling.
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具有焦耳热效应的三维Riga板上EMHD和耗散Williamson纳米流体的生物对流分析
摘要本文研究了携带回旋微生物的Williamson流体在三维Riga表面上的弱磁流体和生物对流纳米流体流动。主要目标是通过在动量和能量方程中引入指数衰减流变学来稳定生物、机械和热系统,即电磁流体动力致动器(EMHD)。因此,假定工作流体是耗散的,并充分考虑了磁雷诺数和高阶反应速率。为了简化悬浮纳米颗粒的生物对流现象,采用适当的相似变换,将偏微分方程组(PDEs)转化为常微分方程组(ode)。采用数值方法Galerkin加权残差法(GWRM)对控制流参数进行分析。结果通过表格和图表呈现,提供有价值的见解。研究结果表明,Hartmann数改善了Williamson流体的弱运动,热泳数对所有流动分布都有积极影响。此外,温度场受到布朗运动的影响,导致膨胀,而浓度场由于可用于反应的流体颗粒数量减少而减小。此外,较高的浮力表明显著的流体运动,导致Williamson流体化学反应速率降低。关键词:j0=电流密度[A/L2]M0=表面磁性[Wb/L2]μ=可变流体粘度[kgL−1s−1]C=流体浓度[mol.]ρ=流体密度[Kgm−3]ν=运动粘度[L2/s]β4=物质常数[-]β1=粘度参数nt =热电泳数[-]Sc=施密特数[-]K=威廉威廉森流体参数[-]Gn=旋转格拉什数[-]Ec=局部埃克特数[-]λ=化学反应参数[-]Tw=温度密度[K]Cw=浓度密度[mol.L - 3]C∞=自由流浓度[mol.L - 3]w= z−[Ls−1]方向上的速度分量u= x−方向上的速度分量[Ls−1]Kr=反应速率[S−1]ρf=流体密度[Kg/L3]r0=磁体直径[L]Do=质量扩散系数[L2/ S]T=流体温度[K]Cp=比热容[J/ Kg]K]Ha=修正哈特曼数[-]β2=热导率[WL−1K−1]Nb=布朗运动[-]β5=拉伸比[-]Pr=普朗特数[-]Gr=热格拉什夫数[-]χ=生物对流常数[-]Le=刘易斯数[-]Pe=佩利特数[-]Nw=运动密度[mol.Kg−1]T∞=自由流温度[K]N∞=自由流运动微生物[mol.Kg−1]v= y方向的速度分量[LS−1]x,y,z=笛卡尔坐标系[L]感谢并感谢评议者的支持建设性的评论。谢谢你的宝贵时间。披露声明作者未报告潜在的利益冲突。作者简介:smojeed T. Akolade demojeed T. Akolade是尼日利亚伊洛林市伊洛林大学数学系的博士生,也是尼日利亚Kwara州奥科市Thomas Adewumi大学数学与计算科学系的助理讲师。他的研究兴趣包括流体力学、热力学分析、挤压流动、非牛顿流体流动、敏感性分析、流体流动问题的数值和统计分析,并撰写和合作撰写了许多期刊文章。Tayyaba Akhtar来自巴基斯坦旁遮普省南卡纳Sahib地区的历史小镇Sangla Hill。自2022年至今,她一直在数学系担任客座讲师。她毕业于巴基斯坦费萨拉巴德著名的政府学院大学。主要研究方向为数值模拟、热流和质量流、辐射、多孔介质、MHD流、微生物、纳米流体和微分方程。她参加了许多国内/国际会议/研讨会。Mohamed M. awad教授Mohamed M. Awad博士是埃及曼苏拉大学工程学院机械动力工程系的副教授。他也是2005年和2006年ASME国际石油技术研究所(IPTI)奖的获得者。他于2017年3月29日至4月2日在瑞士日内瓦举行的第45届国际发明展上获得银奖。目前,他是非洲和澳大利亚的区域编辑,土耳其耶尔迪兹技术大学出版社《热工程杂志》的编辑委员会成员,《国际石油、天然气和煤炭工程杂志》的编辑委员会成员和国际石油技术杂志的编辑委员会成员。他获得了博士学位。
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来源期刊
INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION
INTERNATIONAL JOURNAL OF MODELLING AND SIMULATION Engineering-Industrial and Manufacturing Engineering
CiteScore
6.10
自引率
32.30%
发文量
66
期刊介绍: This journal was first published in 1981 and covers languages, hardware, software, methodology, identification, numerical methods, graphical methods, VLSI, microcomputers in simulation, and applications in all fields. It appears quarterly.
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