Prabhakar fractional scrutinization of a colloidal mixture of aluminum oxide and copper nanoparticles flowing over a channel subject to slip effects

• Published in: International journal of modern physics. C, Computational physics, physical computation Vol. 35; no. 2
• Main Authors: Raza, Ali, Khan, Umair, Nigar, Niat, Ishak, Anuar, Sherif, El-Sayed M., Pop, Ioan
• Format: Journal Article
• Language: English
• Published: Singapore World Scientific Publishing Company 01.02.2024; World Scientific Publishing Co. Pte., Ltd
• Subjects: Aluminum; Aluminum oxide; Copper; Diffusion coefficient; Diffusion rate; Fluid flow; Fractional calculus; Incompressible flow; Laplace transforms; Magnetic properties; Nanofluids; Nanoparticles; Parallel plates; Physical properties; Sodium alginate; Velocity distribution; hybrid-nanofluid; parallel plates; Prabhakar-fractional derivatives; water; memory effect
• ISSN: 0129-1831; 1793-6586
• DOI: 10.1142/S0129183124400035

According to a remarkable result, the polarization diffusion coefficient of drugs, such as those that slow down and ease the body, may be determined based on the rise in magnetism that follows. This research examines how a magnetic field impacts the Casson-type flow of a viscous, incompressible hybrid nanofluid that naturally flows across two parallel plates. Copper (Cu) and aluminum-oxide (Al2O 3 ) are the two nanoparticles and their physical properties are intended to be the foundation fluids, together with water and sodium alginate as based fluids. The revised fractional model is investigated using the Laplace transformation using the most current and updated definition of the fractional-order derivative with memory effect, i.e. Prabhakar fractional derivative. The impacts of various constraints on distinct nanoparticles are investigated and visually depicted. As a result, we have concluded that a drop in volumetric percentage reduces fluid velocity. The water-based hybrid nanofluid (HNF) has a more significant influence on the temperature and momentum profile than the sodium alginate-based HNF due to the physical appearances of the investigated nanoparticles. The Casson fluid parameter augmentation also regulates the velocity profile by decreasing the velocity field.