Non‐Newtonian nanofluid characteristics over a melting wedge: A numerical study

Abstract

Abstract A study is conducted to determine the impact of joule heating, thermo‐diffusion, and chemical reaction effect on wedge flow with melting. Using similarity transformation, the nonlinear PDEs regulate nanofluid flow is converted to nonlinear ODEs. The MATLAB solver is used to solve the boundary value problem numerically. The interaction of relevant physical entities on nanoparticle concentration, nanofluid temperature, nanofluid velocity, skin friction, rate of heat, and mass transfer is graphically portrayed. This study will aid in the development of cooling devices and various shapes in heat sinks, as well as improving the heat transfer characteristics of Casson flow and strengthening formerly industrial uses. In the limiting situation, current findings are compared to analysis of findings. Flow velocity and concentration compacts in association with enhancing values of chemical reaction factor while temperature increases with enhancing the values of chemical reaction parameter. An upsurge in the temperature of the fluid is seen with the increasing Eckert number. It is found that the melting process increases the thicknesses of Solutal, thermal, and momentum boundary layers while it reduces mass transfer rate, heat transfer rate, and Skin friction. The Casson fluid displays a superior heat transfer mechanism than the Newtonian fluid. This study would be valuable in designing cooling gadgets and heat sinks of various shapes which will enhance the heat transfer properties of Casson nanofluids thereby increasing their applications in industrial perspectives. Moreover, the study reveals the novel applications of Casson nanofluids in cooling devices and heat sinks.