Review on velocity slip with thermal features of irregular heat transport enhancement of hybrid nanofluids

• Heat transfer characteristics of magnetized hybrid nanofluids are studied. • Thermal diffusion and friction factor properties of hybrid nanofluids are examined. • The dual nature of the desirable results is elucidated. • Thermal analysis reports the significance of heat generation/absorption and thermal radiation in the nonlinear form. In engineering and industrial processes, hybrid nanofluids, an advanced form of nanofluid, are used to improve thermal efficiency. Hybrid nanofluids have various uses in refrigeration, tumor treatments, power stations, cooling systems, food processing, biomedical devices, and solar thermal systems. Thus, the major purpose of this article is to examine the heat transport features of a hybrid nanofluid on the dynamics of Zn-Ti 6 Al 4 V/H 2 O. The flow phenomenon of such fluid is produced by a shrinking disk when momentum and the thermal phenomenon are maintained. The classical transformation is employed to alter the flow model of a hybrid nanofluid in the form of non-linear ODEs. The produced model is tackled numerically through the MATLAB solver bvp4c function. The aspects of different emerging physical constraints on the flow field, fluid temperature, drag friction, and Nusselt number are exemplified thoroughly. The study finding reveals that the addition of a hybrid nanofluid in a flow system shows a promising increase in thermal transportation rate. The friction drags coefficient and thermal transportation rate show an upsurge in both solution branches for an increment in the suction parameter. Furthermore, higher values of the thermal conductivity parameter show an enhancement in fluid temperature for both branches.