Several Slip Effects on MHD Flow of Casson Nanofluid Across a Porous Stretched Sheet in the Presence Of Chemical Reactivity and Thermal Radiation
Multiple slip effects involving on the outflow of the boundary layer, first-order chemical processes, heat, radiation and mass Study examined into the transmission more stretching surface of a non-Newtonian nanofluid. To define liquid flow which is not Newtonian, the MHD Casson fluid approach is formulated. Through suitable the governing nonlinear Similarity transformations can be changed into an ODE system, might be numerically solved via 4th order Runge Kutta method as well as the shooting technique. Whenever a concentration slip parameter and a generative chemical reaction are used, the heat transferrate increases, whereas when a chemical reaction that is harmful and a thermal slip parameter are used, the heat transfer rate drops. The numerical method is when comparison to earlier results in the literature, and there is a significant overlap.