Heat and mass transmission analysis of Maxwell tri-hybrid nanofluid flow through a stretchable rotatory disk with non-linear thermal radiation

The analysis of flow, mass, and heat transferral properties of a tri-hybrid nanofluid dissolved in mineral oil through a stretched spinning disk is the primary focus of this manuscript. The Joule heating effect, injection effect, non-linear thermal radiation effect, and the influences of activation energy, and chemical reactions activation energy are also included in the present flow model. The spherical-shaped graphene oxide, MoS2 and Ag are chosen as nanoparticles. The modeled equations are solved numerically by employing the bvp4c method. Results are illustrated in graphs and the numerical computations of the Nusselt number, skin friction, and Sherwood number are reported in tabular form. The outcomes reveal that the hybrid nanofluid has 0.42% and 0.43%, respectively, higher heat and mass transfer rates than the nanofluid, while the tri-hybrid nanofluid has 27.58% and 1.88%, respectively, higher heat and mass transferral rates than the nanofluid. Both radial and angular velocities are influenced positively by the rotation parameter, although the temperature profile and axial velocity show the opposite pattern.