Abstract
A Glauert type laminar wall jet issuing into a stationary liquid medium lying above a wall has technical uses in wall cooling and flow control. It plays a vital role in industrial applications like cooling/heating by impingement of jet, turbine blades, film cooling, mass and heat transfer phenomena. In this regard, a steady incompressible two-dimensional laminar Glauert kind wall jet is scrutinized in this study by considering nanoparticles suspension in the base liquid sodium alginate
with suction and wall slip boundary conditions. Further, a comparative study is done by considering aluminum alloy
and single-walled carbon nanotube
as nanoparticles. The reduced ordinary differential equations (ODEs) are numerically solved by applying Runge-Kutta-Fehlberg fourth fifth-order (RKF-45) technique along with the shooting method. Results reveal that
Casson nanofluid shows enhanced heat transfer than
Casson nanoliquid for increased values of radiation parameter. The rising values of the Casson parameter deteriorate the heat transfer rate of both nanoliquids but an inverse trend is seen for improved values of radiation parameter.