Thermal transport and characterized flow of trihybridity Tiwari and Das Sisko nanofluid via a stenosis artery: A case study

Fangfang, Fu; Sajid, Tanveer; Jamshed, Wasim; Eid, Mohamed R.; Altamirano, Gilder Cieza; Altaf, Imran; Abd-Elmonem, Assmaa; El Din, Sayed M.

doi:10.1016/j.csite.2023.103064

Cited by 29 publications

(3 citation statements)

References 49 publications

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“…[35] found that di‐hybrid nanoparticles (Gold and Silver) could improve blood flow by reducing turbulence and increasing the heat transfer coefficient. Furthermore, [36, 37] analyzed how the ternary hybrid fluid impacts the enhancement of blood circulation within constricted arteries.…”

Section: Introductionmentioning

confidence: 99%

MHD flow of the novel quadruple hybrid nanofluid model in a stenosis artery with porous walls and thermal radiation: A Sisko model‐based analysis

Omama,

Arafa,

Elsaid

et al. 2024

Z Angew Math Mech

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This study introduces a mathematical model that describes the Magnetohydrodynamics (MHD) flow of blood in a porous stenosis artery, incorporating a new hybrid nanofluid (HNF) model known as ‘Quadruple’ or the tetra‐(HNF) model. An innovative aspect of this study lies in the unexplored combination of tetra‐hybrid nanoparticles with the Sisko rheological model. The conventional Tiwari and Das (HNF) model has been expanded to accommodate the tetra‐(HNFs) case. To transform the governing partial differential equations into ordinary differential equations, a series of variable similarity transformations are employed. The resulting highly nonlinear simultaneous equations are efficiently solved using the shooting method. Numerical computations are conducted to investigate various parametric conditions, and graphs are utilized to visualize notable aspects of flow velocity and temperature. A comprehensive analysis is provided to illustrate the influence of flow parameters on wall shear stress and local Nusselt number, which are depicted through figures and tables. The study shows that the novel tetra‐HNF exhibits enhancements in blood flow when compared to nanofluids with a lower number of hybrids. Increasing the flow power index of non‐Newtonian Sisko model leads to improve convective heat transfer. Furthermore, parameters such as porosity, thermal radiation, and magnetic effects exhibit noticeable impacts on blood flow, temperature, and associated risks in constricted arteries.

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Section: Introductionmentioning

confidence: 99%

MHD flow of the novel quadruple hybrid nanofluid model in a stenosis artery with porous walls and thermal radiation: A Sisko model‐based analysis

Omama,

Arafa,

Elsaid

et al. 2024

Z Angew Math Mech

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“…Various attempts on trihybrid nanofluids have been attempted in previous studies. 37–42 Furthermore, Sparrow et al 43 employed a technique for solving the non-similar problems. Raees et al 44 inspected the results for the mixed convection flow of the magnetized second-grade nanofluid in this direction.…”

Section: Introductionmentioning

confidence: 99%

A numerical study on the flow of water-based ternary hybrid nanomaterials on a stretchable curved sheet

Shinwari,

Hayat,

Abbas

et al. 2023

Nanoscale Adv.

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“…To get to know how radiation affects MHD-free convective mass transport in viscous flow across a stretchy surface, Nalivela et al 37 conducted investigations. The motion of CNTs based on water and kerosene across a Riga surface under convective heating and radiation circumstances was explained by Prabakaran et al, 38 Rajupillai et al, 39 Alessa et al, 40 Sindhu et al, 41 Kayikci et al, 42 Sajid et al, [43][44][45] Fangfang et al, 46 and Senthilvadivu et al 47 studied the thermal radiation effects for different aspects.…”

mentioning

confidence: 99%

Magnetohydrodynamic bioconvective flow past an elongated surface with convective heat transport, and velocity slip in a non‐Darcian porous regime

Das,

Patgiri

2024

Heat Trans

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In recent times, bioconvection has numerous uses, like, biological and biotechnological problems. The present study describes the magnetic bioconvective Buongiorno's flow model with microorganisms in a stretchable area with convective heat transfer and second‐order velocity slip in a non‐Darcian porous regime. Here, the influence of variable viscosity, viscous dissipation, Joule heating, and heat source/sink are considered in the occurrence of higher‐order chemical reactions. Employing proper similarity transformations leading equations are transformed to dimension‐free form. The transformed equations are solved via MATLAB bvp4c problem solver. This study's main objective is to graphically analyze the effects of different pertinent factors on the density of motile microorganisms, velocity, concentration, temperature, number of motile microorganisms' density, skin friction, mass transport rate, and heat transport rate. The main findings drawn from this study are viscosity and magnetic parameter lowers the fluid velocity. Biot number increases fluid temperature, but reduces heat transport rates and skin friction. Schmidt and Eckert numbers reduce the fluid concentration. A rise of 0.3 in bioconvective Rayleigh number and 0.2 in buoyancy ratio number causes a percentage drop in velocities of 8.79% and 3.91% (approximately), respectively, in the neighborhood of the sheet. Furthermore, the increase in Peclet number by 0.2 lowers the density number of microorganisms by 28%. Additionally, the profile of motile microorganisms is improved by thermophoresis impact, while it is diminished by chemical reaction.

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Thermal transport and characterized flow of trihybridity Tiwari and Das Sisko nanofluid via a stenosis artery: A case study

Cited by 29 publications

References 49 publications

MHD flow of the novel quadruple hybrid nanofluid model in a stenosis artery with porous walls and thermal radiation: A Sisko model‐based analysis

MHD flow of the novel quadruple hybrid nanofluid model in a stenosis artery with porous walls and thermal radiation: A Sisko model‐based analysis

A numerical study on the flow of water-based ternary hybrid nanomaterials on a stretchable curved sheet

Magnetohydrodynamic bioconvective flow past an elongated surface with convective heat transport, and velocity slip in a non‐Darcian porous regime

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