Influence of chemical reaction on MHD Newtonian fluid flow on vertical plate in porous medium in conjunction with thermal radiation

Zhang, Juan; Wang, Fuzhang; Tamoor, Muhammad; Kamran, Muhammad; Farooq, Aamir; Rehman, Sadique; Al-Johani, Amnah S.; Khan, İlyas; Alkhatib, Soliman; Ahmad, Harith

doi:10.1515/phys-2022-0028

Cited by 5 publications

(1 citation statement)

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“…Another study [4] investigated theoretically the Casson nanofuids fow past a vertical Riga plate embedded in porous medium and obtained that as permeability of the porous medium (Darcy number) increased, velocity profle increases (and drops for increment in nanoparticle volume fraction), and the drag force reduced for enhancement in porous medium parameters. Another study [42] presented MHD Newtonian fuid fow on a vertical sheet in the porous medium. Tey observed that as the velocity slip, curvature of the cylinder, and the porosity enhanced the velocity and temperature profles and their boundary layer, and the drag force dropped, respectively.…”

Section: Introductionmentioning

confidence: 99%

Stagnation Point Flow of $CoF e_{2} Duguma, Makinde, Enyadene 2023Journal of Engineering6000View full text Add to dashboard CiteMounting temperatures in electronic devices during operation may damage sensitive internal components if too much thermal energy accumulates inside the system. The advent of an innovative ultrahigh-performance thermal management technology known as nanofluid has provided a veritable platform to improve the system performance and reliability by removing the high heat flux generated in the engineering and industrial devices. This paper examines the combined effects of Darcy–Forchheimer porous medium-resistant heating and viscous dissipation on stagnation point flow of a Casson nanofluid (

CoF

e

2

O

4

-

H

2

O

and

Ti

O

2

-

H

2

O

) towards a convectively heated slippery stretching/shrinking cylindrical surface in a porous medium. The governing nonlinear model equations are obtained, analysed, and tackled numerically via the shooting technique with the Runge–Kutta–Fehlberg integration scheme. A unique solution is obtained when the surface is stretching. For shrinking cylindrical surface, the model exhibits nonunique dual solutions for a defined range of parameter values, and a temporal stability analysis is conducted to ascertain the stable and physically achievable solution. The effects of emerging thermophysical parameters on the overall flow structure and thermal management such as velocity and temperature profiles, skin friction, and Nusselt number are quantitatively discussed through graphs and in tabular form. It is found that the thermal performance heat transfer enhancement capability of

Ti

O

2

-

H

2

O

is higher than that of

CoF

e

2

O

4

-

H

2

O

. Moreover, the nanofluid thermal performance is enhanced with nanoparticles volume fraction, Casson nanofluid parameter, and Biot number but lessened with porous medium permeability.show abstract“…Another study [4] investigated theoretically the Casson nanofuids fow past a vertical Riga plate embedded in porous medium and obtained that as permeability of the porous medium (Darcy number) increased, velocity profle increases (and drops for increment in nanoparticle volume fraction), and the drag force reduced for enhancement in porous medium parameters. Another study [42] presented MHD Newtonian fuid fow on a vertical sheet in the porous medium. Tey observed that as the velocity slip, curvature of the cylinder, and the porosity enhanced the velocity and temperature profles and their boundary layer, and the drag force dropped, respectively.…” Section : Introduction mentioning confidence: 99% Stagnation Point Flow of CoF e_{2} Duguma, Makinde, Enyadene 2023Journal of Engineering6000View full text Add to dashboard CiteMounting temperatures in electronic devices during operation may damage sensitive internal components if too much thermal energy accumulates inside the system. The advent of an innovative ultrahigh-performance thermal management technology known as nanofluid has provided a veritable platform to improve the system performance and reliability by removing the high heat flux generated in the engineering and industrial devices. This paper examines the combined effects of Darcy–Forchheimer porous medium-resistant heating and viscous dissipation on stagnation point flow of a Casson nanofluid (

CoF

e

2

O

4

-

H

2

O

and

Ti

O

2

-

H

2

O

) towards a convectively heated slippery stretching/shrinking cylindrical surface in a porous medium. The governing nonlinear model equations are obtained, analysed, and tackled numerically via the shooting technique with the Runge–Kutta–Fehlberg integration scheme. A unique solution is obtained when the surface is stretching. For shrinking cylindrical surface, the model exhibits nonunique dual solutions for a defined range of parameter values, and a temporal stability analysis is conducted to ascertain the stable and physically achievable solution. The effects of emerging thermophysical parameters on the overall flow structure and thermal management such as velocity and temperature profiles, skin friction, and Nusselt number are quantitatively discussed through graphs and in tabular form. It is found that the thermal performance heat transfer enhancement capability of

Ti

O

2

-

H

2

O

is higher than that of

CoF

e

2

O

4

-

H

2

O

. Moreover, the nanofluid thermal performance is enhanced with nanoparticles volume fraction, Casson nanofluid parameter, and Biot number but lessened with porous medium permeability.show abstractA Parametric Simulation of MHD Flow and Heat Transfer of Blood-Fe3O4 Over an Exponentially Stretching Cylinder Alam 1, Murtaza 2, Tzirtzilakis 3 et al. 2023 BioNanoSci. 3000 View full text Add to dashboard Cite No abstractEntropy generation minimization in the Carreau nanofluid flow over a convectively heated inclined plate with quadratic thermal radiation and chemical reaction: A Stefan blowing application Lavanya, Kumar, Babu et al. 2024 Propulsion and Power Research 1000 View full text Add to dashboard Cite No abstractscite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health. 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The advent of an innovative ultrahigh-performance thermal management technology known as nanofluid has provided a veritable platform to improve the system performance and reliability by removing the high heat flux generated in the engineering and industrial devices. This paper examines the combined effects of Darcy–Forchheimer porous medium-resistant heating and viscous dissipation on stagnation point flow of a Casson nanofluid (\n \n CoF\n \n \n e\n \n \n 2\n \n \n \n \n O\n \n \n 4\n \n \n \n -\n \n \n \n H\n \n \n 2\n \n \n O\n \n and \n \n Ti\n \n \n O\n \n \n 2\n \n \n \n -\n \n \n \n H\n \n \n 2\n \n \n O\n \n ) towards a convectively heated slippery stretching\u002Fshrinking cylindrical surface in a porous medium. The governing nonlinear model equations are obtained, analysed, and tackled numerically via the shooting technique with the Runge–Kutta–Fehlberg integration scheme. A unique solution is obtained when the surface is stretching. For shrinking cylindrical surface, the model exhibits nonunique dual solutions for a defined range of parameter values, and a temporal stability analysis is conducted to ascertain the stable and physically achievable solution. The effects of emerging thermophysical parameters on the overall flow structure and thermal management such as velocity and temperature profiles, skin friction, and Nusselt number are quantitatively discussed through graphs and in tabular form. It is found that the thermal performance heat transfer enhancement capability of \n \n Ti\n \n \n O\n \n \n 2\n \n \n \n -\n \n \n \n H\n \n \n 2\n \n \n O\n \n is higher than that of \n \n CoF\n \n \n e\n \n \n 2\n \n \n \n \n O\n \n \n 4\n \n \n \n -\n \n \n \n H\n \n \n 2\n \n \n O\n \n . Moreover, the nanofluid thermal performance is enhanced with nanoparticles volume fraction, Casson nanofluid parameter, and Biot number but lessened with porous medium permeability.","authors":[{"family":"Duguma","given":"Kifle Adula","orcid":"0000-0002-2522-9608","affiliation":"Department of Applied Mathematics, Adama Science and Technology University, Adama, Oromia, Ethiopia"},{"family":"Makinde","given":"Oluwole Daniel","orcid":"0000-0002-3991-4948","affiliation":"Faculty of Military Science, Stellenbosch University, Stellenbosch, South Africa"},{"family":"Enyadene","given":"Lemi Guta","affiliation":"Department of Applied Mathematics, Adama Science and Technology University, Adama, Oromia, Ethiopia"}],"keywords":[],"year":2023,"shortJournal":"Journal of Engineering","publisher":"Hindawi Limited","volume":"2023","page":"1-28","memberId":98,"issns":["2314-4912","2314-4904"],"editorialNotices":[],"journalSlug":"journal-of-engineering-1ZGDE","journal":"Journal of Engineering","preprintLinks":[],"publicationLinks":[],"normalizedTypes":["article"]},"10.1007\u002Fs12668-023-01141-x":{"id":11819185247,"doi":"10.1007\u002Fs12668-023-01141-x","slug":"a-parametric-simulation-of-mhd-1ZyLmVg6","type":"journal-article","title":"A Parametric Simulation of MHD Flow and Heat Transfer of Blood-Fe3O4 Over an Exponentially Stretching Cylinder","authors":[{"family":"Alam","given":"Jahangir","affiliation":"University of Dhaka","authorSlug":"jahangir-alam-8G194Y","authorName":"Jahangir Alam","authorID":"6872221","authorLastKnownAffiliationId":10925,"authorSequenceNumber":1,"affiliationSlug":"university-of-dhaka-RL9","affiliationID":"1126"},{"family":"Murtaza","given":"M. 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Jayachandra"},{"family":"Raju","given":"C.S.K."},{"family":"Almutairi","given":"Bander"},{"family":"Shah","given":"Nehad Ali"}],"year":2024,"shortJournal":"Propulsion and Power Research","publisher":"Elsevier BV","issue":"2","volume":"13","page":"233-244","memberId":78,"issns":["2212-540X"],"editorialNotices":[],"journalSlug":"propulsion-and-power-research-V0M4M","journal":"Propulsion and Power Research","preprintLinks":[],"publicationLinks":[],"normalizedTypes":["article"]},"10.1080\u002F23311916.2024.2430437":{"id":12437128788,"doi":"10.1080\u002F23311916.2024.2430437","slug":"analysis-of-heat-and-mass-3n63XK12","type":"journal-article","title":"Analysis of heat and mass transfer in MHD laminar fluid flow between parallel plates of different permeability","authors":[{"family":"Pai","given":"Nityanand P.","affiliation":"Department of Mathematics, Manipal Institute of Technology, Manipal Academy of Higher Education, Manipal, Karnataka, India"},{"family":"V. S.","given":"Sampath Kumar","affiliation":"Department of Mathematics, Manipal Institute of Technology, Manipal Academy of Higher Education, Manipal, Karnataka, India"},{"family":"B.","given":"Devaki","affiliation":"Department of Mathematics, Manipal Institute of Technology, Manipal Academy of Higher Education, Manipal, Karnataka, India"},{"family":"Bhat","given":"Pareekshith G.","affiliation":"Department of Mathematics, Manipal Institute of Technology, Manipal Academy of Higher Education, Manipal, Karnataka, India"}],"year":2024,"shortJournal":"Cogent Engineering","publisher":"Informa UK Limited","issue":"1","volume":"11","memberId":301,"issns":["2331-1916"],"editorialNotices":[],"journalSlug":"cogent-engineering-jMx3M","journal":"Cogent Engineering","preprintLinks":[],"publicationLinks":[],"normalizedTypes":["article"]},"10.1515\u002Fphys-2024-0043":{"id":12289958500,"doi":"10.1515\u002Fphys-2024-0043","slug":"an-investigation-into-the-impact-3n4kQG8J","type":"journal-article","title":"An investigation into the impact of thermal radiation and chemical reactions on the flow through porous media of a Casson hybrid nanofluid including unstable mixed convection with stretched sheet in the presence of thermophoresis and Brownian motion","abstract":"This article investigates the unsteady mixed convention two-dimensional flow of magnetohydrodynamic Casson hybrid nanofluids (alumina oxide and titanium oxide nanoparticles with base fluid water) flow through porous media over a linearly stretched sheet. We analyzed the heat and mass transfer in mixed convection, thermal radiation, variable thermal conductivity, variable mass diffusivity, and chemical reaction in the presence of thermophoresis and Brownian motion. A system of partial differential equations is reduced to a solvable system of ordinary differential equations by applying a suitable similarity transformation. We used the Runga–Kutta method along with the shooting procedure to solve the flow, heat, and mass transfer equations along with boundary conditions. The results obtained from MATLAB codes are compared with previously published results of the same type in a limiting case. The results of the velocity, temperature, and concentration profile of the hybrid nanofluid for varying different flow parameters are obtained in the form of graphs, while the rate of shear stress, rate of heat, and mass transfer are expressed in tables. We noticed that velocity and temperature diminish as an unsteady parameter increases; however, the reverse trend was observed in the nanoparticle concentration profile. With an increase in the thermal radiation parameter, the resultant velocity and temperature profile improves, while the concentration of nanoparticle profiles decreases. The velocity and temperature increase with higher Brownian motion, while the velocity increases and temperature decreases with higher thermophoresis.","authors":[{"family":"Dandu","given":"Sridevi","affiliation":"Department of Engineering Mathematics, College of Engineering Koneru Lakshmaiah Education Foundation , Vaddeswaram , 522502, A.P. , India"},{"family":"Chitrapu","given":"Venkata Ramana Murthy","affiliation":"Department of Engineering Mathematics, College of Engineering Koneru Lakshmaiah Education Foundation , Vaddeswaram , 522502, A.P. , India"},{"family":"Kodi","given":"Raghunath","affiliation":"Department of Humanities and Sciences, St. Johns College of Engineering and Technology , Yemmiganur , Kurnool , A.P., 518360 , India"}],"year":2024,"publisher":"Walter de Gruyter GmbH","issue":"1","volume":"22","memberId":374,"issns":["2391-5471"],"editorialNotices":[],"journalSlug":"open-physics-LeOEA","journal":"Open Physics","preprintLinks":[],"publicationLinks":[],"normalizedTypes":["article"]},"10.1515\u002Fphys-2022-0028":{"id":11372612651,"doi":"10.1515\u002Fphys-2022-0028","slug":"influence-of-chemical-reaction-on-YZ5OYGk2","type":"journal-article","title":"Influence of chemical reaction on MHD Newtonian fluid flow on vertical plate in porous medium in conjunction with thermal radiation","abstract":"Our key objective in the present work is to elaborate the concept of activation energy in chemically reactive flow with the help of modeling and computation. The model investigated is fluid flow over a vertical cylinder in the porous medium with chemical reaction and radiation effect. The similarity transform converted the resulting constitutive equations and partial differential equations (PDEs) into ordinary differential equations (ODEs). The resulting non-linear momentum, heat transfer, and mass transfer coupled equations are computed with the Range–Kutta–Fehlberg method. Both assisting and non-assisting buoyant flow conditions are considered, and observed numeric solutions vary with the transport properties. Characteristics of momentum, heat, and concentration under the applied boundary conditions are analyzed. In addition, the increment in activation energy parameters boosts the Lorentz force and mass transfer rate.","authors":[{"family":"Zhang","given":"Juan","authorSlug":"juan-zhang-n6Lyld","authorName":"Juan Zhang","authorID":"4801777","authorLastKnownAffiliationId":9892,"authorSequenceNumber":1},{"family":"Wang","given":"Fuzhang","affiliation":"Nanchang Institute of Technology","authorSlug":"fuzhang-wang-68RO9p","authorName":"Fuzhang Wang","authorID":"6155010","authorLastKnownAffiliationId":189031,"authorSequenceNumber":2,"affiliationSlug":"nanchang-institute-of-technology-QQ8V","affiliationID":"16560"},{"family":"Tamoor","given":"Muhammad","affiliation":"Institute of Process Engineering","authorSlug":"muhammad-tamoor-MVpWlX","authorName":"Muhammad Tamoor","authorID":"6512908","authorLastKnownAffiliationId":179324,"authorSequenceNumber":3,"affiliationSlug":"institute-of-process-engineering-zRnr9","affiliationID":"162594"},{"family":"Kamran","given":"Muhammad","affiliation":"COMSATS University Islamabad","authorSlug":"muhammad-kamran-V0MnlE","authorName":"Muhammad Kamran","authorID":"6715782","authorLastKnownAffiliationId":13190,"authorSequenceNumber":4,"affiliationSlug":"comsats-university-islamabad-9N5G","affiliationID":"13190"},{"family":"Farooq","given":"Aamir","affiliation":"Zhejiang Normal University","authorSlug":"aamir-farooq-8GwOOY","authorName":"Aamir Farooq","authorID":"6065921","authorLastKnownAffiliationId":12498,"authorSequenceNumber":5,"affiliationSlug":"zhejiang-normal-university-WE4N","affiliationID":"10348"},{"family":"Rehman","given":"Sadique","affiliation":"University of Haripur","authorSlug":"sadique-rehman-lyM1l3","authorName":"Sadique Rehman","authorID":"15028180","authorLastKnownAffiliationId":14582,"authorSequenceNumber":6,"affiliationSlug":"university-of-haripur-mdAX","affiliationID":"25443"},{"family":"Al-Johani","given":"Amnah S.","affiliation":"University of Tabuk","authorSlug":"amnah-s-al-johani-OvVG2a","authorName":"Amnah S. 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