Thermal radiation and local thermal non-equilibrium effects on MHD chemical reactive flow of tetra hybrid nanofluid with velocity slip conditions

The current article examines the impact of thermal radiation and velocity slip condition on the chemical reactive flow of MHD in tetra hybrid nanofluid across an inclined spinning disk with local thermal non-equilibrium conditions. The current work has been improved by taking slip flow into account more. The latest study examines the properties of heat transmission in the absenteeism of local thermal equilibrium conditions using a basic scientific model. Two distinct fundamental thermal gradients are produced by the local thermal equilibrium effects classical for both the solid and liquid phases. Tetra hybrid nanofluid containing, aluminum oxide (${A{l}_{2}O}_3)$ , titanium dioxide $\left(Ti{O}_2\right),\text{silver}\left(Ag\right)$ and cobalt ferrite (${\text{COF}{e}_{2}O}_4)$ nanoparticles, and based fluid water is used. Through heat transfer process optimization in complicated fluids, it can improve heat exchanger efficiency in thermal engineering. Chemical engineers may be able to construct more efficient reactors for chemical reactions with its insights into reaction kinetics and thermal distributions. Numerical solutions to effectively converted governing equations have been obtained using the bvp4c technique. The findings indicate that as the interphase heat transmission and velocity parameter increase the solid phase's thermal field and the liquid phase's ratio of heat transmission, velocity distribution drop, while the fluid phase's thermal profile and increasing rate of heat transfer.