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• W2955762517 abstract "A mathematical study is described to examine the concurrent influence of thermal radiation and thermal wall slip onthe dissipative magnetohydrodynamic electro-osmotic peristaltic propulsion of a viscous nano-liquid in an asymmetricmicrochannel under the action of an axial electric field and transverse magnetic field. Convective boundary conditionsare incorporated in the model and the case of forced convection is studied i.e. thermal and species (nanoparticle volumefraction) buoyancy forces neglected. The heat source and sink effects are also included and the diffusion fluxapproximation is employed for radiative heat transfer. The transport model comprises the continuity, momentum,energy, nanoparticle volume fraction and electric potential equations with appropriate boundary conditions. These aresimplified by negating the inertial forces and invoking the Debye–Huckel linearization. The resulting governingequations are reduced into a system of non-dimensional simultaneous ordinary differential equations, which is solvedanalytically. Numerical evaluation is conducted with symbolic software (MATLAB). The impact of different controlparameters (Hartmann number, electroosmosis parameter, slip parameter, Helmholtz-Smoluchowski velocity, Biotnumbers, Brinkman number, thermal radiation and Prandtl number) on the heat, mass and momentum characteristics(velocity, temperature, Nusselt number etc.) are presented graphically. Increasing Brinkman number is found toelevate temperature magnitudes. For positive Helmholtz-Smoluchowski velocity (reverse axial electrical field)temperature is strongly reduced whereas for negative Helmholtz-Smoluchowski velocity (aligned axial electrical field)it is significantly elevated. With increasing thermal slip nanoparticle volume fraction is also increased. Heat sourceelevates temperatures whereas heat sink depresses them, across the micro-channel span. Conversely, heat sinkelevates nano-particle volume fraction whereas heat source decreases it. Increasing Hartmann (magnetic) parameterand Prandtl number enhance the nano-particle volume fraction. Furthermore, with increasing radiation parameter theNusselt number is reduced at the extremities of the micro-channel whereas it is elevated at intermediate distances. Theresults reported provide a good insight into biomimetic energy systems exploiting electromagnetics and nanotechnologyand furthermore they furnish a useful benchmark for experimental and more advanced computationalmulti-physics simulations." @default.
• W2955762517 created "2019-07-12" @default.
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• W2955762517 date "2019-07-16" @default.
• W2955762517 modified "2023-10-17" @default.
• W2955762517 title "Thermal slip and radiative heat transfer effects on electro-osmotic magnetonanoliquid peristaltic propulsion through a microchannel" @default.
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• W2955762517 doi "https://doi.org/10.1002/htj.21522" @default.
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