Applications of neuro-computing and fractional calculus to blood streaming conveying modified trihybrid nanoparticles with interfacial nanolayer aspect inside a diseased ciliated artery under electroosmotic and Lorentz forces

Ali, Asgar; Das, Sanatan

doi:10.1016/j.icheatmasstransfer.2024.107313

International Communications in Heat and Mass Transfer

2024

DOI: 10.1016/j.icheatmasstransfer.2024.107313

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Applications of neuro-computing and fractional calculus to blood streaming conveying modified trihybrid nanoparticles with interfacial nanolayer aspect inside a diseased ciliated artery under electroosmotic and Lorentz forces

Asgar Ali,

Sanatan Das

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2024

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Cited by 21 publications

References 56 publications

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Heat transfer analysis of hybrid nanofluid under the effects of surface roughness along with velocity and thermal slips

Siddique,

Irfan,

Al‐Dossari

et al. 2024

Heat Trans

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Surface roughness has a great impact on the peristaltic motion of nanofluid flow and plays an important role in engineering, manufacturing, and material sciences. During tissue engineering, imaging techniques, implant surface finish, surgical instrument texture, and tissue engineering, and so forth. This study explores the effects of electrical double layers, surface roughness, velocity slip, and thermal slip to investigate the heat transfer rate of cobalt and alumina nanoparticles with water through uniform and nonuniform horizontal tubes. In the present study, the Jeffrey nanofluid flow model is chosen to investigate the heat transfer phenomenon of hybrid nanofluids based on alumina and cobalt nanoparticles suspension in water. The effects of electroosmosis, surface roughness, viscous dissipation, heat source/sink parameter, velocity, and thermal slips are also under consideration during the peristaltic motion of hybrid nanofluid in uniform and nonuniform tubes. The mathematical software MATHEMATICA 13.3 is utilized to find the exact solution and graphical results to investigate the complicated flow behavior. It is noticed that the velocity near the walls of the tube is lower for the surface roughness parameter and higher in the core part. The behavior of velocity for the remaining parameter is the opposite. The temperature of the current fluid flow increases for all parameters except the surface roughness parameter. The effects of velocity for hybrid nanofluid are prominent as compared with nanofluid in the core part. The temperature profile and heat transfer rate for hybrid nanofluids are lower as compared with nanofluids, which shows the cooling effects. This study is beneficial for hyperthermia, gene therapy, drug delivery, and tissue engineering.

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Heat transfer analysis of hybrid nanofluid under the effects of surface roughness along with velocity and thermal slips

Siddique,

Irfan,

Al‐Dossari

et al. 2024

Heat Trans

View full text Add to dashboard Cite

show abstract

Computational study of the pulsatile EMHD Sutterby nanofluid flow of blood through an inclined tapered porous artery having overlapping stenosis with body acceleration and slip effects

El Glili,

Driouich

2024

Arch Appl Mech

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Contrasting analysis of tetra and ternary nanofluid dynamics over linear/exponential stretching sheets with variable thermal conductivity: an RSM approach

Mahanta,

Sharma

2024

J Therm Anal Calorim

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Applications of neuro-computing and fractional calculus to blood streaming conveying modified trihybrid nanoparticles with interfacial nanolayer aspect inside a diseased ciliated artery under electroosmotic and Lorentz forces

Cited by 21 publications

References 56 publications

Heat transfer analysis of hybrid nanofluid under the effects of surface roughness along with velocity and thermal slips

Heat transfer analysis of hybrid nanofluid under the effects of surface roughness along with velocity and thermal slips

Computational study of the pulsatile EMHD Sutterby nanofluid flow of blood through an inclined tapered porous artery having overlapping stenosis with body acceleration and slip effects

Contrasting analysis of tetra and ternary nanofluid dynamics over linear/exponential stretching sheets with variable thermal conductivity: an RSM approach

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