Analysing the Effect of MHD Nanoparticles Flow in Blood Plasma over a Stretching Sheet by Taylor Wavelt Operational Matrix Method

Abstract

Studying the flow of nanoparticles ($F{e}_3{O}_4$ or $MWCNT$) in the base fluid (blood plasma) over a permeable stretched sheet in the presence of an induced magnetic field, which is the primary aim of the research. The flow is studied by applying the temperature and velocity slip conditions. The relevant partial differential equations are transformed into ordinary differential equations using suitable similarity transformations. The Taylor wavelet operational matrix collocation method is then employed to solve the resulting ordinary differential equations (ODE), the comparison of the Nusselt number and local skin friction coefficient with those from previous research reveals a good degree of accuracy. The findings of the study show that $MWCNT$ improves the fluid's axial velocity and temperature profile more than $F{e}_3{O}_4$ does when mixed with blood plasma. Compared to velocity slip boundary constraints, the no-slip boundary condition increases the axial velocity of the fluid.