MHD radiative nanofluid flow past an upright cone under the influence of dissipative chemical reactions with heat source/sink and mass flux

The research aims to investigate the impacts of isothermal heat and species (mass) flux models on the phenomena of thermal as well as species (mass) transference aspects of nanofluid composed of water that is (Al 2 O 3 , Cu, Ag and TiO 2 in Table 1) located over a upright cone in the process of viscidity dissipation, MHD, chemical process, thermic radiation as well as heat blowing/sink. Formulation of the fundamental governing equations for nanofluid flow is accomplished with the use of boundary layer approximations. The Crank–Nicolson approach gives insight into the non-dimensional forms of the relevant equations to be solved. Plots are used to explore specific fundamental characteristics such as velocity, temperature and concentrations of nanoparticles concerning various crucial factors such as the magnetic parameter, Prandtl number, Schmidt number, and volume fraction coefficients. In addition, to verify the efficacy and dependability of the method that has been suggested, the results of the problem that has been taken into consideration are contrasted with the results that have been obtained previously, and it is discovered that there is a positive agreement between the two sets of results. The study also reveals the results of the examination into the drag coefficient, the heat transfer rate as well as the mass transfer rate.