Dusty Nanofluid Past a Centrifugally Stretching Surface

Ibrahim, Wubshet; Gamachu, Dachasa

doi:10.1155/2020/9163081

Cited by 10 publications

(4 citation statements)

References 32 publications

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“…Rashid et al 11 studied the flow of magnetite nanoliquid by adding dust impurities and reported that greater volume fraction (dust particle) diminishes the flow velocity and heat transfer rate. Thermal and momentum fields of the nanoliquid phase are greater as equated with dust phase; this was reported by Gireesha et al 12 Ibrahim and Gamachu 13 examined the heat transmission of dusty nanoliquids over a centrifugally extending surface. Siddiqa et al 14 inspected the dual-phase flow of dusty nanoliquids by using the finite difference method (FDM) scheme.…”

Section: Introductionmentioning

confidence: 73%

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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Section: Introductionmentioning

confidence: 73%

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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“…Industrial fluent media frequently include contaminants such as particulate matter and other persistent pollutants, and these fluids are referred to as "dusty" or "fluid-particle suspensions," which need multi-phase models. Ibrahim et.al [24] investigated the effect of various thermohydrodynamical parameters on dusty nanofluids. Reddy et.al [25] explored the micropolr dusty fluid with heat transfer.The convection of energy in dusty terbulent flow is analised by Ahmed et.al [26].…”

Section: Introductionmentioning

confidence: 99%

Numerical simulation of interface tracking between two immiscible micropolar and dusty fluids

Chandrawat,

Joshi

2024

Preprint

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The development of the interface tracking between two immiscible liquids is one of the most challenging problems in fluid dynamics. The simulation of the lubrication process, oil extraction, and the physicochemical mechanism that govern the behavior of the uncertain conduct of interface is a key element in “gas-oil” or “oil-water” natural gas-oil reservoirs systems and should be tracked for optimal recovery. Motivated by the interface evolution process, in this article, an unsteady flow of two immiscible Eringen micropolar and Dusty(fluid-particle suspension) fluids is considered through a horizontal channel. The Analysis of the interface between two immiscible Eringen micropolar and Dusty(fluid-particle suspension) fluids are carried out. Although the channel wall is hyper-stick and no-slip, it is believed that the fluid-fluid interface is unstable and can be also deformed from one location to another; thus, the single momentum equation is coupled for monitoring the interface profiles using the VOF(Volume of fluid) technique. The modeled coupled- partial differential equations are numerically solved by the modified B-spline differential quadrature method. The interface profile under the influence of different parameters, i.e. Froude, Capillary, wave and Reynolds number, volume fraction function, the ratio of viscosities, densities, and time is analyzed through the graph. It is noticed that initially, the vertical elongation of the interface is large, and then the shape of the interface (topology) evolves with time; hence the undulating sequence occurs faster for a more considerable time and eventually becomes stable. The qualitative characteristics of this flow are sustained.

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“…e velocity profile and boundary layer thickness decrease as the first-order velocity slip and Williamson parameter are increased. Using convective boundary conditions and second-order slip, a boundary layer flow of a dusty nanofluid which passed a centrifugally expanding surface was examined [30]. It has been observed that in both fluids and dusty phases, the magnetic field parameter influences the velocity profile similarly.…”

Section: Introductionmentioning

confidence: 99%

Investigation of Heat Transfer from Convective and Radiative Stretching/Shrinking Rectangular Fins

Din

Ali

Ullah

et al. 2022

Mathematical Problems in Engineering

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We study the efficiency of shrinking/stretching radiative fins to improve heat transfer rate. To evaluate the competence of suggested fins, the influence of shrinking/stretching, thermogeometric parameters, surface temperature, convection conduction, radiation conduction, and Peclet number is investigated. The problem is solved numerically using a shooting method. To validate the numerical solution, the results are compared with the solution of a differential transform method. Temperature distribution increases with a rise in convection and radiation conduction parameters when Peclet number, stretching/shrinking, ambience, and surface temperatures are raised. The temperature of the fin’s tip increases as ambient temperature, Peclet number, and surface temperature increase, and decreases for enhanced radiation and convection conduction parameters. Radiation and convection cause the efficiency of the fin to increase for shrinking and decrease for stretching, which shows an important role in heat transfer analysis in mechanical engineering. The formulated model is also studied analytically, and the result is compared to numerical solution, which shows qualitatively good agreement.

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Dusty Nanofluid Past a Centrifugally Stretching Surface

Cited by 10 publications

References 32 publications

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

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

Numerical simulation of interface tracking between two immiscible micropolar and dusty fluids

Investigation of Heat Transfer from Convective and Radiative Stretching/Shrinking Rectangular Fins

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