4.5 Article

Stability of magnetohydrodynamics free convective micropolar thermal liquid movement over an exponentially extended curved surface

Journal

HELIYON
Volume 9, Issue 11, Pages -

Publisher

CELL PRESS
DOI: 10.1016/j.heliyon.2023.e21807

Keywords

bvp4c and ND -Solve; Micro polar thermal liquid; Nanomaterial; Nanofluidics; Heat source; Variable thermal conductivity; Exponentially extended curved surface

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Micro polar fluids have a wide range of applications and studying their heat transfer properties in magnetohydrodynamic free convection movement is important. The findings of this study show that the velocity decreases and the micro rotation field increases with increasing micro rotation parameter. Additionally, the distribution of temperature is affected by factors such as Eckert number, curvature parameter, and magnetic factor.
Micro polar fluids have a wide variety of applications in biomedical, manufacturing, and technical activities, such as nuclear structures, biosensors, electronic heating and cooling, etc. The aim of this study is to investigate the properties of heat transfer on a magnetohydrodynamic free convection movement of micro polar fluid over an exponentially stretchable curved surface. The flow is non-turbulent and steady. The effects of Joule heating, varying thermal conductivity, irregular heat reservoir, and non-linear radiation are anticipated. The modelled PDEs are converted to ODEs via transformation, and the integration problems are then addressed using NDSolve method along with bvp4c package. It is observed that velocity is reduced and the micro rotation field is increased as the micro rotation parameter is increased. It is witnessed that the temperature of the fluid enhances as the Eckert number is augmented. The velocity is increasing function of the curvature parameter while the decreases with increasing magnetic factor. The distribution of temperature is improved by a rise in temperature-dependent thermal conductivity characteristic. It is investigated that as the values of temperature ratio, Prandtl number, and the Biot number are increased the temperature distribution is enhanced. For the stability of the numerical results, the mean square residue error (MSRE) and total mean square residue error (TMSRE) are computed. For the confirmation of the present analysis, a comparison is done with the published study and excellent settlement is found.

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