This present study describes the entropy generation on magnetohydrodynamic (MHD)
blood flow of a nanofluid induced by peristaltic waves. The governing equation of continuity,
equation of motion, nano-particle and entropy equations are solved by neglecting the inertial
forces and taking long wavelength approximation. The resulting highly non-linear coupled
partial differential equation has been solved analytically with the help of perturbation method.
Mathematical and graphical results of all the physical parameters for velocity, concentration,
temperature, and entropy are also presented. Numerical computation has been used to evaluate the
expression for the pressure rise and friction forces. Currently, magnetohydrodynamics is applicable
in pumping the fluids for pulsating and non-pulsating continuous flows in different microchannel
designs and it also very helpful to control the flow.
