Characteristics of Radiating Carreau-Nanofluid Flow Past a Permeable Stretching Sheet with the Effects of Magnetic Field and Transpiration

Abstract

The steady-state flow across an isothermal, permeable stretched sheet of an incompressible, viscous, and electrically conducting Carreau fluid is investigated in this work. It considers Brownian motion, a magnetic field, transpiration, thermophoresis, concentration and thermal slip, and thermal radiation. Buongiorno's model manages the Brownian motion and thermophoresis in the regulating equations for energy and concentration. Local similarity transformations let one convert the governing partial differential equations into a collection of ordinary differential equations. These nonlinear ordinary differential equations then numerically are solved in concert with the RK-method utilizing a strong numerical approach known as shooting technique. The study investigates how various physical properties influence the graphical depictions of profiles of temperature, speed, and concentration of nanoparticles. In several situations the findings show excellent consistency with earlier investigations.