Numerical computation of Williamson hybrid nanofluid flow over the curved surfaces with Effects of Thermal Radiation

The current investigation is based on Williamson features of a hybrid nanofluid flow over a curved surface made mixture of silver and titanium dioxide engine oil. Under the presumption of a low magnetic Reynolds number, a constant homogenous magnetic field is applied. Consideration is given to the ramping temperature and the time-varying surface concentration. Thermal absorption and first order consistent chemical reaction are also taken into account. To create a hybrid nanofluid, silver and titanium nanoparticles are dispersed in a base fluid made of water and engine oil. Quasilinearization technique and Finite difference scheme is employed on the non dimensional partial differential equations. All physical parameters of practical importance, such as velocity, temperature, and concentration profile are analyzed and provided in tables and graphs along with the impact of physical parameters.