Impact of nonlinear radiation on magnetohydrodynamic flow of hybrid nanofluid with heat source effect

Abstract

This investigation is performed to deliberate the novel significance of nonlinear thermal radiation effect on magnetohydrodynamic flow of Casson hybrid nanoliquid caused by a curved stretching sheet. The flow and thermal transport nature of three different hybrid nanoliquids in the stimulus of viscous dissipation, nonlinear radiation and magnetic force is discussed numerically. The novelty of this work is to obtain the simultaneous solutions for three different types of hybrid nanoliquids, they are obtained by suspending titanium alloy (Ti6Al4vs.) is composed of titanium, aluminum and vanadium in the ratio of 90:6:4 respectively and aluminium alloy (AA7075) is compossed of Aluminum, Zinc, Magnesium and Copper nanoparticles in the ratio of 90:6:3:1 respectives with added metals Silicon, Ferrous and Magnesium. in three various working liquids viz. methanol, ethylene glycol and engine oil. The flow governing PDE's are transmuted into ODE's with suitable similarity transformation and solved by using Runge-Kutta and Newton's approach. Numerical outcomes of flow and temperature profiles are presented via graphical trends, also skin friction coefficient and rate of thermal transfer are illustrated via tabulated values. Major outcomes reveals that, inclusion of hybrid nanometer sized particles in pedestal liquid lead to an large hike in thermal transfer performance. Importantly, thermal transport rate and temperature profiles of the hybrid nanoliquid rises with improving nonlinear radiation values and these results are significant in nonlinear radiation case as compared with linear radiation case.

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.…”

Application of heat transfer on MHD shear thickening fluid flow past a stretched surface with variable heat source/sink

“…The oblique MHD nanoliquid flow past a nonlinear stretched cylinder is reported by Abbas et al 4 Vaidya et al 5 scrutinized the mixed convective MHD flow of nanoliquid toward a Riga sheet with a chemical reaction. The electrically conducting Jeffrey nanoliquid stream by perpendicular stretching cylinder is elucidated by Hayat et al 6 Sandeep et al 7 illustrated the influence of nonlinear radiative heat on MHD hybrid nanoliquid flow past an elongated surface. Sulochana and Mahalaximi 8 investigated the influence of chemical response as well as radiative heat on the flow of Williamson nanoliquid across an expandable sheet.…”

A semi-analytical passive strategy to examine the water-ethylene glycol (50:50)-based hybrid nanofluid flow over a spinning disk with homogeneous–heterogeneous reactions

“…As depicted by Usman et al 9 the hybrid nanoparticles have superior thermal flow rate in comparison of nanofluid. Sundaeep et al 10 have deliberated influence of nonlinear thermal radiations upon MHD hybrid nanofluid flow subject to effects of heat source on a curved stretching sheet. Ashwinkumar et al 11 have deliberated convective thermal flow in MHD hybrid nanoparticles using two different geometrical views and have concluded that augmentation in thermal radiation factor and nanoparticles concentration have boosted the distributions of temperature.…”