Thermal Radiation Impact on Nanofluid Boundary Layer Flow Towards a Moving Plate in Presence of Magnetic Field Using Numerical Solutions

Abstract

As part research, non-linear thermal radiation is used to learn how magnetic fields affect the incompressible, viscous and conductive flows of non-Newtonian nanofluid flow. The characteristics of this flow are indomitable and tenacious. The momentum equation has been updated to include the magnetic field and the energy equation has been updated to include thermal radiation. This procedure uses a similar transformation to turn the principal PDE into a regular differential equation. After performing the similarity analysis, the Runge-Kutta (R-K) method can be used together to solve the related equations. Adjustment equations are applied to each flow variable and analysis marks are plot and interpreted. The profile of velocity, temperature, and concentration is displayed. Table following summarizes the effects of other flow factors studied: skin friction coefficient, Nusselt number, and Sherwood number. The program code has been validated and excellent concordance between the findings and previously published benchmarks.