Magnetohydrodynamic Mixed Convection of Hybrid Nanofluid Flow past Non-Isothermal Cone/Wedge Surfaces with Non-Linear Radiation and Chemical Reaction

The current article focuses on the examination of a hybrid nanofluid magne- tohydrodynamic flow across two different geometries, specifically a cone or wedge, within a porous medium with considering non-linear thermal radiation and chemical reactions. Hybrid nanoliquids have numerous applications in engineering and industry. Cone and wedge geometries are commonly employed in processing of polymer data. Hybrid nanoliquids exhibit superior performance in heat and mass transport rates when compared to both nanoliquids and conventional liquids. This study introduces the concept of hybrid nanoliquid to enhance energy and mass transfer, demonstrating favorable outcomes in thermal and mass transfer performance. The current study is structured using partial differential equations, which are converted into ordinary differential equations through appropriate similarity transformations. Numerical solutions are derived utilizing the bvp4c function within the MATLAB environment. This simplification has several significant outcomes: increasing the non-linear thermal radiation parameter enhances the thermal profile of the hybrid nanoliquid; the mass transfer rate of the hybrid nanoliquid decreases with respect to the Schmidt number and the chemical reaction; hybrid nanofluids excel single component nanofluids in their thermal performance, which confirms their potential in enhancing the heat transfer efficiency.