Hall Current with Multiple Slip Effects on the Forced Convection of Hybridized Nanoliquid with Dissipative Heat Impact Utilizing Spectral Quasi-Linearization Method.

The current needs of science and technology depend upon the advanced flow and heat transfer properties which are beneficial for the production processes as well as the life span. In this regard, nanofluid or hybrid nanofluid has a significant contribution in enhancing the thermal properties. The study emphasizes the heat transfer processes of an ethylene glycol-based hybrid nanofluid composed of titanium oxide (TiO 2) and cobalt ferrite (Fe3O 4) over an expanding/contracting slandering surface embedded inside a porous matrix. Additionally, the forced convection integration with the Hall current experiences a major role in the flow characteristic and the dissipative heat for the consideration of both Joule and Darcy energies in the heat transport phenomenon. Moreover, the impact of multiple slips assumed as a surface condition is also favorable in enhancing the transport phenomena. The precise model relating to the dimensional form is transformed into dimensionless for the utilization of suitable similarity rules and then the spectral quasi-linearization method (SQLM) is helpful for the resolution of the transformed model. The noteworthy behavior of the characterizing factors is obtained through graphs and deliberated clearly. Examine the flow behavior of the EG-based hybrid nanofluid over a slandering surface. Explore the thermal properties hybrid nanofluid for the combined effect of the solid nanoparticles TiO2 and Fe3O4. Deploy the role of Hall current on the mixed convection with the dissipative heat integrated with the Joule and Darcy effects. Consider the impact of multiple slips that at the interface of the solid-fluid medium affects the entire phenomenon. Asses the physical behavior of hybridized fluids that are vital in several industrial production processes and biological fields. [ABSTRACT FROM AUTHOR]