The Effects Of Radiation And Mhd Casson Nanofluid Buoyancy-Driven Mixed Convection Slip Flow On An Inclined Plate With Chemical Reactions

Abstract

This inquiry examines the steady-state chemical reaction, thermal radiation, and MHD Casson nanofluid (Blood /silver (Ag)) buoyancy-driven mixed convection slips flow over a porous inclined plate. Using the similarity technique, PDEs are transformed into nonlinear ODEs. Using Maple software, the Runge-Kutta fourth-order method is used to numerically solve these equations. The impacts of different effects of the magnetic field, porosity, buoyancy force parameter, velocity, temperature, concentration slips, thermal radiation, chemical reaction parameter, thermophoresis, and Schmidt number on temperature, velocity, and concentration profiles have been examined. Nusselt number, Skin friction Sherwood no are also included. The calculated results are shown graphically and in a table.  The velocity profile decreases for suction and injection over inclined plates while the Casson fluid and magnetic field parameters increase. As the values of the magnetic field, thermal radiation, and volume friction increase, the temperature increases in cases of suction and injection. As the chemical reaction parameters rise, inclined plate concentration profiles increase for suction and injection. As the Sherwood number and Nusselt number across an inclined plate increase, the impression of Eckert number, thermal radiation, and magnetic field values seems to be growing. It has many applications, such as including die-extruded polymer sheets, continuous casting, and biomedical.