Flow of Magnetohydrodynamic Maxwell Fluid in Darcy – Forchheimer Model, With Cattaneo – Christov Heat Flux, Over A Stretching Sheet Subjected to Convective Boundary Conditions

This research communication explores the Darcy - Forchheimer flow of a chemically reacting non-Newtonian Maxwell fluid over a stretching sheet, incorporating the Cattaneo – Christov heat flux under a convective boundary condition. The fluid flow is described by a set of partial differential equations, which are subsequently transformed into a system of nonlinear ordinary differential equations. To solve these equations numerically, the BVP4C Method was employed after appropriately defining non dimensional variables and implementing similarity transformations. The impacts of diverse active parameters such as Deborah parameter, Darcy‑Forchheimer parameter, magnetic parameter, Biot number, and porous parameter are examined on the velocity, temperature, and concentration profiles. In addition, the value of the Skin friction, Nusselt number is calculated and presented through tabular forms.

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Publication Details

Journal
East European Journal of Physics
Published
2024-09-02
DOI
https://doi.org/10.26565/2312-4334-2024-3-22
Primary Topic
Nanofluid Flow and Heat Transfer
Type
article
Field-Weighted Citation Impact
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article

Flow of Magnetohydrodynamic Maxwell Fluid in Darcy – Forchheimer Model, With Cattaneo – Christov Heat Flux, Over A Stretching Sheet Subjected to Convective Boundary Conditions

D. Dastagiri Babu, R. Hanuma Naik, D. Manjula, Venkateswarlu Surisetty
East European Journal of Physics
Nanofluid Flow and Heat Transfer
article

Flow of Magnetohydrodynamic Maxwell Fluid in Darcy – Forchheimer Model, With Cattaneo – Christov Heat Flux, Over A Stretching Sheet Subjected to Convective Boundary Conditions

D. Dastagiri Babu, R. Hanuma Naik, D. Manjula, Venkateswarlu Surisetty
article en

Abstract

This research communication explores the Darcy - Forchheimer flow of a chemically reacting non-Newtonian Maxwell fluid over a stretching sheet, incorporating the Cattaneo – Christov heat flux under a convective boundary condition. The fluid flow is described by a set of partial differential equations, which are subsequently transformed into a system of nonlinear ordinary differential equations. To solve these equations numerically, the BVP4C Method was employed after appropriately defining non dimensional variables and implementing similarity transformations. The impacts of diverse active parameters such as Deborah parameter, Darcy‑Forchheimer parameter, magnetic parameter, Biot number, and porous parameter are examined on the velocity, temperature, and concentration profiles. In addition, the value of the Skin friction, Nusselt number is calculated and presented through tabular forms.

East European Journal of Physics(3)
General Motors (India) (IN)
Openalex Percentile: Top 82%
Nanofluid Flow and Heat Transfer
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