Effect of Thermal Radiation on Three-Dimensional Magnetized Rotating Flow of a Hybrid Nanofluid

Abstract

The effect of thermal radiation on the three-dimensional magnetized rotating flow of a hybrid nanofluid has been numerically investigated. Enhancing heat transmission is a contemporary engineering challenge in a range of sectors, including heat exchangers, electronics, chemical and biological reactors, and medical detectors. The main goal of the current study is to investigate the effect of magnetic parameter, solid volume fraction of copper, Eckert number, and radiation parameter on velocity and temperature distributions, and the consequence of solid volume fraction on declined skin friction and heat transfer against suction and a stretching/shrinking surface. A hybrid nanofluid is a contemporary type of nanofluid that is used to increase heat transfer performance. A linear similarity variable is–applied to convert the governing partial differential equations (PDEs) into corresponding ordinary differential equations (ODEs). Using the three-stage Labatto III-A method included in the MATLAB software’s bvp4c solver, the ODE system is solved numerically. In certain ranges of involved parameters, two solutions are received. The temperature profile upsurges in both solutions with growing values of and . Moreover, the conclusion is that solution duality exists when the suction parameter , while no flow of fluid is possible when . Finally, stability analysis has been performed and it has been found that only the first solution is the stable one between both solutions.

Magnetized mixed convection hybrid nanofluid with effect of heat generation/absorption and velocity slip condition

“…Nanofluids can be established through equally diffused solid nanoparticles in a normal fluid. Water, synthetic polymer remedies, oil and lubricants, organic fluids, and other typical liquids are examples of base fluids according by Asghar et al [ 4 ] Solid nanoparticles with distinctive physical and chemical characteristics, like carbon nanotubes, oxides, carbides, or metals, are typically found in nanofluids by Nada et al [ 5 ] In particular, when it comes to boosting the thermal conductivity of the standard liquids, nanofluids have been found to have greater thermal efficiency than their common fluid counterparts. As a result, nanofluids are used in a variety of heat transfer-related real-world applications.…”

Thermal investigation and physiochemical interaction of H2O and C2H6O2 saturated by Al2O3 and γAl2O3 nanomaterials

“…In recent years, researchers contributed in the field of nanofluids and their applications and effectiveness in various disciplines under different scenarios. [23][24][25] The inspection of reversible and irreversible cycles under physical aspects is important for thermodynamical studies and Tayebi et al 26 covered the analysis in annular enclosure. Recently, scientists and engineers from different fields focused on the development of various improved thermal models in varying geometries.…”

MHD flow in a rotating vertical cone through a porous medium

“…Interaction of thermal radiation on the natural convective flow via a cone by analyzing the properties of wall heat, as well as mass flux through a porous medium, was presented by Ghoneim et al 20 Tassaddiq et al 21 have studied the heat and mass transfer of hybrid nanofluid through a rotating disk. The Runge–Kutta method is an effective method for solving fluid flow problems which can be seen in the following papers 22–27 …”

“…The Runge-Kutta method is an effective method for solving fluid flow problems which can be seen in the following papers. [22][23][24][25][26][27] The fluid flows on a cone-shaped physique through a porous medium have inspired attention due to recent improvements in innovative technologies. Excellent applications for the effect of porous media may be found in a wide range of technical and industrial domains, including fiber spinning process, paper production, underground spreading of chemical waste, and nuclear waste repository.…”