Effect of inclined magnetic field on radiative heat and mass transfer in chemically reactive hybrid nanofluid flow due to dual stretching

Abstract

This research analyzes the three-dimensional magneto hydrodynamic nanofluid flow through chemical reaction and thermal radiation above the dual stretching surface in the presence of an inclined magnetic field. Different rotational nanofluid and hybrid nanofluids with constant angular velocity $${\upomega }^{*}$$ ω ∗ for this comparative study are considered. The constitutive relations are used to gain the equations of motion, energy, and concentration. This flow governing extremely non-linear equations cannot be handled by an analytical solution. So, these equations are transformed into ordinary differential equalities by using the similarity transformation and then handled in MATLAB by applying the boundary values problem practice. The outcomes for the considered problem are accessed through tables and graphs for different parameters. A maximum heat transfer amount is observed in the absence of thermal radiation and when the inclined magnetic field and axis of rotation are parallel.

Numerical simulations of heat generation, thermal radiation and thermal transport in water-based nanoparticles: OHAM study

“…They focused on the behavior of the flow as it moves over a horizontally stretched nonlinear surface situated in two perpendicular directions. In their study, Arshad et al 20 examined the 3-D MHD nanofluid flow involving chemical reactions and thermal radiation over a double stretching surface, under the inspiration of an inclined magnetic field. Their findings indicated that the highest level of heat transfer occurs when thermal radiation is inattentive and the slanting magnetic field aligns parallel to the axis of rotation.…”