The thermal performance of magnetized micropolar Casson hybrid nanofluids model with different flow constraints has been optimized in the current focus. The decomposition of aluminum alloy ( AA 7072 and AA 7075 ) suspended in engine oil (SAE10W −30) to create a hybrid nanofluid for enhanced heat transfer processes. The formulated model is converted into dimensionless form by implementation of the similarity approach, for excellent accuracy in numerical results shooting scheme has been adopted. The extensive use of micropolar fluids due to their micro-rotational property is noticed in different sectors, such as polymer synthesis, heat transformation enhancement and lubricating process, to enhance thermal performance in various systems. Modern research boosted the trend of heat transmission by adding hybridized nanomaterials in traditional fluids and flow properties. The primary focus of this research is to optimized the heat and mass transfer process by using Casson micropolar hybridized nanofluid model. The skin friction profile demonstrates upsurge behaviour by enlarging values of Hartmann number and declined by Casson fluid parameter. The Nusselt number profile also slow down with enlarging values of thermal relaxation parameter. The results present efficient cooling applications for advanced engineering and industrial processes and heat transfer management systems.
Ishaq et al. (Mon,) studied this question.