Numerical investigation on transport of momenta and energy in micropolar fluid suspended with dusty, mono and hybrid nano-structures

Kaneez, Hajra; Alebraheem, Jawdat; Elmoasry, Ahmed; Saif, Rai Sajjad; Nawaz, M.

doi:10.1063/5.0003042

Cited by 30 publications

(8 citation statements)

References 41 publications

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“…Numerical solution of the model is acquired via shooting method. Kaneez et al 51 , 52 investigated the numerical solution of micropolar fluid including dusty, mono and hybrid nono-structures. Khan et al 53 demonstrated the upper convected Maxwell MHD micropolar fluid with the impact of Joule heating and thermal radiation utilizing a hyperbolic heat flux.…”

Section: Introductionmentioning

confidence: 99%

Closed-form solution of oscillating Maxwell nano-fluid with heat and mass transfer

Farooq

Rehman

Alharbi

et al. 2022

Sci Rep

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The primary goal of this article is to analyze the oscillating behavior of Maxwell Nano-fluid with regard to heat and mass transfer. Due to high thermal conductivity of engine oil is taken as a base fluid and graphene Nano-particles are introduced in it. Coupled partial differential equations are used to model the governing equations. To evaluate the given differential equations, certain dimensionless factors and Laplace transformations are used. The analytical solution is obtained for temperature, concentration and velocity. The temperature and concentration gradient are also finds to analyze the rate of heat and mass transfer. As a special case, the solution for Newtonian fluid is discussed. Finally, the behaviors of various physical factors are studied graphically for both sine and cosine oscillation and give physical meanings to the parameters.

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Section: Introductionmentioning

confidence: 99%

Closed-form solution of oscillating Maxwell nano-fluid with heat and mass transfer

Farooq

Rehman

Alharbi

et al. 2022

Sci Rep

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“…analysis is performed successfully by implementing FEM [35][36][37][38][39]. This work is organized in five sections.…”

Section: Introductionmentioning

confidence: 99%

Homogeneous–heterogeneous reactions for Maxwell nanofluid flow over an elongating cylindrical pipe via finite element method

et al. 2023

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Homogeneous-heterogeneous chemical reactions in simultaneous heat and mass transport for Maxwell fluid subjected to thermophoresis and Brownian motion are modeled and governing mathematical models are simplified using approximations proposed models are simplified using approximations proposed by Ludwing Prandtl. The simplified governing mathematical models under Buongiorno's theory are numerically solved via finite element method (FEM). The convergence and mesh free solution are solved for parametric study. The momentum relaxation phenomenon is the characteristic of liquid to restore its equilibrium state. Therefore, a remarkable reduction in the motion of fluid particles against an increase in Deborah number is noticed. A rise in temperature distribution is noticed when Brownian motion parameter is enhanced. The flow is decelerated as the curvature of the cylinder increases. As a consequence, the viscous region shrinks and its thickness becomes smaller. Hence, it is concluded that flow over flat surface has wider boundary layer region than the boundary layer region associated with flow over the cylindrical surface. The wall shear stress for the flow over a cylindrical object is higher than that for the flow over a flat surface. The wall heat and mass fluxes have an increasing tendency when the curvature parameter is increased. Wall heat flux and wall mass flux have opposite behavior due to rise in thermophorsis and Brownian motion effects.

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“…Zahba 20 has studied the heat flow of these liquids in the enclosure with dual hot fins. Kaneez et al 21,22 explored the role of dust particles and hybrid-nano structures on the heat conduction phenomena. Reddy et al 23 analyzed the dusty-hybrid liquid on an extended sheet with the properties of CNTs.…”

Section: Introductionmentioning

confidence: 99%

Simultaneous solutions for convective heat transfer in dusty-nano- and dusty-hybrid nanoliquids

Samrat

Ashwinkumar

Sandeep

2021

Proceedings of the Institution of Mechanical Engineers, Part E:

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The present study investigates the heat transfer and flow behaviour of magnetohydrodynamic dusty-nano- and dusty-hybrid nanoliquids caused by the stretched surface. We considered the copper oxide (CuO) and magnesium oxide (MgO) nanoparticle suspension in water (H2O) as the base liquid. Similarity transformations are used to transform the partial differential equations to ordinary differential equations and solved by the Runge-Kutta Fehlberg 45 method with a shooting procedure. Outcomes of the velocity and thermal gradients for diverse physical impacts are depicted via plots and the skin friction factor and heat transfer rate are illustrated via tabulated values. Results reveal that dusty-hybrid nanoliquids and their conductive properties play an important role throughout the study. A growth in the mass concentration of dust particles augments the temperature and the Nusselt number, but the reverse reaction to the friction factor and velocity profile has been seen. The Eckert number has a propensity to magnify the temperature of the fluid phase and dust phase. The interaction of dust and nanoparticles extends to the greater heat transmission in the dust phase associated with the fluid phase. Hybridization showed a positive response in the heat transmission of the nanoliquid. The dusty hybrid-nano liquid shows higher heat dispersion compared to the dusty nanoliquid.

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Numerical investigation on transport of momenta and energy in micropolar fluid suspended with dusty, mono and hybrid nano-structures

Cited by 30 publications

References 41 publications

Closed-form solution of oscillating Maxwell nano-fluid with heat and mass transfer

Closed-form solution of oscillating Maxwell nano-fluid with heat and mass transfer

Homogeneous–heterogeneous reactions for Maxwell nanofluid flow over an elongating cylindrical pipe via finite element method

Simultaneous solutions for convective heat transfer in dusty-nano- and dusty-hybrid nanoliquids

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