MHD Three Dimensional Rotating and Radiating Hybrid Fe 3 O 4 /Al 2 O 3 Nanofluid Flow over a Stretched Plate with Hall Current

Abstract

Researchers prioritize the study of nanofluids because of the many applications their fast heat transfer rates make possible in the industrial sector. Recently, an innovative kind of nanofluid known as hybrid nanofluid has been used to further improve the heat transmission rate. This new model in three dimensions is used to investigate the impact of a magnetic field, joule heating, rotation parameter, and Hall current, as well as nonlinear thermal radiation, on a rotating hybrid Fe3O4/Al2O3 nanofluid over-stretched plate in the presence of a chemical reaction with thermophoresis and a Brownian motion parameter. The primary focus of this research is on the Brownian motion parameter. Similar adaptations translate the governing partial differential identification into a set of nonlinear ordinary differential identifications. The shooting technique obtains numerical solutions for that system of equations. The impact of various entry parameters on transversal and longitudinal velocities, temperature, heat flow and surface shear stress are studied numerically and graphically. It was shown that there is a strong connection between the primary research when looking at particular situations that indicate how the current technique meets the convergence requirements. In addition, the physical relevance of the contributed parameters is shown via graphs and tables. The discovery demonstrates that an increase in the particle concentration of the hybrid nanofluid accelerates the flow of the liquid. In addition, factoring in dissipative heat makes it more likely that the fluid temperature will be increased to accommodate the participation of the particle concentration.