Computational Simulation of Magneto Convection Flow of Williamson Hybrid Nanofluid with Thermal Radiation Effect
Hamzeh Taha Alkasasbeh, Feras M. AlFaqih, Abedalrahman S Shoul
Abstract
The theme of this model is to examine the characteristics of heat and mass transfer flow through stretching sheet along with magnetic field and thermal radiation utilizing Al2O3+CuO/SA Williamson hybrid nanofluid. The transformed partial differential equations are solved by Keller-Box method. The numerical outcomes of physical quantities are revealed by graphs and tables. The Nusselt number, skin friction, velocity and temperature are displayed with support of bar diagram. The study depicted that an increase in the Weissenberg number, radiation, and magnetic parameter surges in fluid temperature, results in an improvement in the thermal boundary layer, this effect reduces the fluid velocity and skin friction coefficient. Excellent correctness of the current results has been acquired as compared thru the previous results