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Peristaltic activity of thermally radiative magneto‐nanofluid with electroosmosis and entropy analysis
The importance of gold and silver nanoparticles in the blood flow has immense applications in biomedicine for the treatment of cancer disease and wound treatment due to their large atomic number and antimicrobial property. The current study deals with the magnetohydrodynamic and electroosmotic radiative peristaltic Jeffrey nanofluid (blood–silver/gold) flow with the effect of slip and convective boundary conditions in the nonsymmetric vertical channel. The nondimensional governing equations have been solved analytically and the exact solutions have been presented for velocity, temperature, shear stress, trapping, entropy generation, pressure gradient and heat transfer coefficient. The pictorial representations have been prepared for the flow quantities with respect to fluid flow parameters of interest. It is noticed from the current study that the gold‐based nanofluids exhibit higher velocity than silver‐based nanofluids. Enhancement of thermal radiation decreases the total entropy generation. The size of the tapered bolus decreases with the enhancement of magnetic field strength. The present model is applicable in designing pharmacodynamic pumps and drug delivery systems.
Peristaltic activity of thermally radiative magneto‐nanofluid with electroosmosis and entropy analysis
The importance of gold and silver nanoparticles in the blood flow has immense applications in biomedicine for the treatment of cancer disease and wound treatment due to their large atomic number and antimicrobial property. The current study deals with the magnetohydrodynamic and electroosmotic radiative peristaltic Jeffrey nanofluid (blood–silver/gold) flow with the effect of slip and convective boundary conditions in the nonsymmetric vertical channel. The nondimensional governing equations have been solved analytically and the exact solutions have been presented for velocity, temperature, shear stress, trapping, entropy generation, pressure gradient and heat transfer coefficient. The pictorial representations have been prepared for the flow quantities with respect to fluid flow parameters of interest. It is noticed from the current study that the gold‐based nanofluids exhibit higher velocity than silver‐based nanofluids. Enhancement of thermal radiation decreases the total entropy generation. The size of the tapered bolus decreases with the enhancement of magnetic field strength. The present model is applicable in designing pharmacodynamic pumps and drug delivery systems.
Peristaltic activity of thermally radiative magneto‐nanofluid with electroosmosis and entropy analysis
Sridhar, V. (author) / Ramesh, K. (author)
Heat Transfer ; 51 ; 1668-1690
2022-03-01
23 pages
Article (Journal)
Electronic Resource
English
Flow of magneto nanofluid by a radiative exponentially stretching surface with dissipation effect
| British Library Online Contents | 2016
Flow of magneto nanofluid by a radiative exponentially stretching surface with dissipation effect
| British Library Online Contents | 2016