Wave Transport and the Effects of Magnetohydrodynamics on a Non-Newtonian Biological Fluid

Amal Nouman Khalaf; Omar Ahmed Abbas; Huda Fadil Khudair

Authors

Amal Nouman Khalaf Department of Computer Systems Techniques - Polytechnic College - Kirkuk، Northern Technical University, Kirkuk, Iraq
Omar Ahmed Abbas Ministry of Education – Deanship of the Open College of Education – Samarra Branch , Salah Al Din , Iraq
Huda Fadil Khudair College of Agriculture, Samarra University, Samarra, Salah Al Din , Iraq

Keywords:

wave transport, dimensionless variables, hydromagnetic dynamics, blood circulation, magnetic field

Abstract

In this article, the effect of hydromagnetic dynamics on blood circulation within a non-Newtonian fluid characterised by specific mathematical properties was investigated. The wavelength and flow regime were modelled using an analysis of ordinary differential equations, leading to the derivation of a closed-form solution. Following the application of the theories, results were obtained showing that the magnetic field increases the temperature distribution, leading to a decrease in pressure. The coefficients leading to a decrease in temperature distribution were also studied; The increase in the number of particles in the cycle is caused by the effect of the magnetic field, whilst the increase in the slip coefficient and porosity leads to an increase in the volume of the cycle.

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