Numerical Solution of Micropolar Fluid for Jenkins Model with Micro-Rotation between Two Rotating Disks
Authors
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Department of Mathematics and Research Centre in Applied Mathematics, M E S College of Arts, Commerce and Science, Bengaluru – 560003, Karnataka ,IN
G. R. Meghashree -
Department of Mathematics and Research Centre in Applied Mathematics, M E S College of Arts, Commerce and Science, Bengaluru – 560003, Karnataka ,INC. S. Asha
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Department of Mathematics and Research Centre in Applied Mathematics, M E S College of Arts, Commerce and Science, Bengaluru – 560003, Karnataka ,INL. N. Achala
DOI:
https://doi.org/10.18311/jmmf/2024/33920Keywords:
Ferrofluid, Material Constant, Micropolar Fluid, Rotating DiskAbstract
The flow of a steady, axi-symmetric, incompressible micropolar fluid between two infinite rotating disks is described for Jenkins Model. The governing equations are reduced to non-linear ordinary differential equations and are solved numerically through the shooting technique. The graphs are plotted and the impact of the material constant is analysed on the velocity, micro-rotation velocity profiles and pressure. The results reveal that the material constant has a significant effect on radial velocity, axial velocity and pressure.
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This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.
Accepted 2024-02-23
Published 2024-03-29
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