A numerical framework of magneto Williamson hybrid nanofluid over porous sheet; a classical keller box analysis.

• The current study intends to talk about the unsteady Williamson hybrid nanofluid flow with heat transport across a stretching surface comprising the magnetic hydrodynamic, thermal radiative, suction/injection, and convective boundary condition effects respectively. • It has been demonstrated that the nanoparticle combination of zinc oxide and molybdenum disulfide Z n O - M O S 2 is superior in terms of enhancing heat transport. • To accomplish this goal, the modeled expressions are transmitted into dimensionless ODE by making use of several highly established transformations. • The aim of the numerical result of the current exploration is studied through Keller Box Analysis (KBA). Tabular data and statistical bar plots are used to compare this strategy. • The impact of physical variables such as Magnetic field parameter γ , Williamson fluid variable W e , Porous media β , Thermal radiation R d , Biot number B i and Prandtl number P r are analyzed through plots and tables. The current study intends to talk about the unsteady Williamson hybrid nanofluid flow with heat transport across a stretching surface comprising the magnetic hydrodynamic, thermal radiative, suction/injection, and convective boundary condition effects respectively. The study focused on the hybrid Williamson nanofluid, comprising of an EG ethylene glycol (C 2 H 6 O 2) and two types of nano-solid particles, c zinc oxide and molybdenum disulphide Z n O - M O S 2 . To accomplish this goal, the modelled expressions are transmitted into dimensionless ODE by making use of several highly established transformations. The aim of the numerical result of the current exploration is studied through Keller Box Analysis (KBA). Tabular data and statistical bar plots are used to compare this strategy. The impact of physical variables such as Magnetic field parameter γ , Williamson fluid variable W e , Porous media β , Thermal radiation R d , Biot number B i and Prandtl number P r are analyzed through plots and tables. An augmentation in the strength of the magnetic field and Williamson fluid parameter results in a reduction in velocity. However, a temperature rise is observed for higher values of the Williamson fluid parameter and magnetic parameters. The surface friction drag is diminished by the Forchheimer and Weissenberg values. The rate of mass transfer is strongly positively correlated with both the Schmidt number and chemical reaction. The present study has a remarkable agreement with the results that were previously published, which confirms the application and validation of the Keller-Box scheme. [ABSTRACT FROM AUTHOR]