Behavior of slip boundary conditions for the flow of nanofluid in the presence of an inclined magnetic field

Abstract

The inflated heat transport rate of nanofluids is of great interest to researchers. Conviction of nanosuspension with an enhanced model under the consideration of inclined magnetic field is also vital for the enhancement of heat transport rate. Therefore, in this article, an inclined magnetic field has been considered during a boundary layer flow over an extending sheet, with the sheet being permeable. The sequels of heat radiation, thermophoresis, and Brownian parameters are also taken into consideration in this study. The importance of the study is the slip boundary conditions used for velocity, temperature, and concentration. A set of nonlinear partial differential equations is transformed into ordinary differential equations with a suitable choice of similarity variables. The set of first-order differential equations is quite difficult to solve analytically. Therefore, the numerical Runge-Kutta-Fehlberg method, accompanied with shooting technique, is used. The results of the physical components characterizing the flow phenomena, such as magnetic parameter, thermal radiation, thermophoresis, Brownian parameter, and slip parameters, are elaborated through graphs. The numerical results of physical quantities of attention are presented in tables. The existing outcome conforms to that of the previous published result in a particular case.

Entropy analysis of magnetohydrodynamic nanofluid transport past an inverted cone: Buongiorno's model

“…They observed that the skin friction decreases for higher stretching parameter values, whereas a reverse trend is observed in the case of Nusselt and microorganism numbers. Nayak et al 17 presented the effects of thermal radiation and MHD on nanofluid flows past an inclined surface. They found that an increase in thermal slip and inclination angle causes thinning of the thermal boundary layer, which results in the reduction of the liquid energy.…”

Radiative Magnetohydrodynamic Flow Over a Vertical Cone Filled With Convective Nanofluid

“…Anwar et al [2] analysed numerically the radiative MHD flow using the Laplace transformation. Researchers [13,14,21] looked into non-newtonian fluid several slip situations.…”