Study of Peristaltic Motion of Nano Particles of a Micropolar Fluid with Heat and Mass Transfer Effect in an Inclined Tube

Prasad, K. Maruthi; Subadra, N.; M.A.S., Srinivas

doi:10.1016/j.proeng.2015.11.368

Cited by 7 publications

(2 citation statements)

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“…Ustable peristaltic transport in curved channels was explored by Maruthi Prasad et al [2]. Maruthi Prasad et al [3] looked at the peristaltic motion of nanoparticles in a micropolar fluid through an inclined tube, as well as the impact of heat and mass transmission. Divya et al [4] investigated the influence of different liquid physiognomies on the peristaltic process of a convectively heated Jeffrey fluid in a greased elastic tube.…”

Section: Introductionmentioning

confidence: 99%

“…The impact of elasticity on nanofluid peristaltic flow in a tube was investigated by Haseena et al [10]. A computational method for MHD peristaltic transport through an inclined nanofluid symmetric channel containing porous material was provided by Abd-Alla et al [11]. Fluids like micropolar fluids have a microstructure that belongs to the polar fluids class of fluids with a non-symmetrical strain tensor.…”

Section: Introductionmentioning

confidence: 99%

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Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Sreekala¹,

Prasad²,

Subadra³

2022

Journal of Pharmaceutical Negative Results

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The effect of elasticity on the peristaltic flow of a micropolar fluid containing nanoparticles in a cylindrical tube is investigated using amathematical model. The expressions for velocity and flux flow rate are determined by using Homotopy Perturbation method, underlong wave length and low Reynold’s number approximations. The variation of flux is calculated by Rubinow and Keller, Muzumdarmethods. Different parameters' effects on velocity and flow have been discussed. For various settings, the trapping phenomenon isdemonstrated. The flux increases as the elasticity parameters, micropolar parameter, thermophoresis parameter, and coupling numberincrease. The flux similarly reduces as the Brownian motion parameter is increased. The obtained results are same when we applyRubinow and Keller, Muzumdar methods.

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Section: Introductionmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Sreekala¹,

Prasad²,

Subadra³

2022

Journal of Pharmaceutical Negative Results

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Entropy generation and curvature effect on peristaltic thrusting of (Cu–Al₂O₃) hybrid nanofluid in resilient channel: Nonlinear analysis

et al. 2021

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The pharyngeal stage of bolus transport or blood motion in the arteries cannot ignore the effect of curvature and inertial forces in peristaltic channels. Thus, the nonlinear curvature of peristaltic pumping becomes significant when the moving wall induces a curvilinear fluid motion at infinite Reynolds numbers, also the intrauterine fluid flow in the case of curvature nonpregnant uterus is an application of it. Hybrid nanofluids are new types of nanofluids, which can be produced by the suspension of multiple kinds of nanoparticles in base fluids. A hybrid nanomaterial is a substance that contains chemical and physical features of multiple materials together and gives these features in a homogeneous phase. The synthetic hybrid nanomaterial reveals significant physio‐chemical features that do not present in the individual components. In this investigation, the flow of an incompressible viscous fluid driven by sinusoidal waves moves on boundaries of the symmetric channel is studied when inertia and streamline curvature effects are not negligible, where the flow of Al 2 O 3 nanofluid and ( C u ‐ A l 2 normalO 3 ) hybrid nanofluid has been utilized to investigate the axial and normal behavior of velocities and heat transfer. An approximate solution to the second‐order in the wavenumber (giving the curvature effect) is obtained. To transform the variable cross‐section of the channel to a uniform cross‐section, we used a domain transformation, and this facilitates an easy way of getting a closed‐form of solutions to higher orders. Also, the pressure gradient and time flow rate relations are obtained. The influence of various biophysical parameters has been demonstrated through the graphs. All flow properties, temperature profile, and rate of heat transfer at the walls are greatly influenced by the presence of copper nanofluid. Furthermore, we observed that the case of spherical‐shaped nanoparticles provides a better heat transfer ability as compared to the case of cylindrically shaped nanoparticles. The effects of inertia and curvature are discussed and compared with some previous results in the literature.

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A Mathematical Approach to Study the Blood Flow Through Stenosed Artery with Suspension of Nanoparticles

Prasad

Sudha

2018

Numerical Heat Transfer and Fluid Flow

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Study of Peristaltic Motion of Nano Particles of a Micropolar Fluid with Heat and Mass Transfer Effect in an Inclined Tube

Cited by 7 publications

References 12 publications

Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Entropy generation and curvature effect on peristaltic thrusting of (Cu–Al₂O₃) hybrid nanofluid in resilient channel: Nonlinear analysis

A Mathematical Approach to Study the Blood Flow Through Stenosed Artery with Suspension of Nanoparticles

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Study of Peristaltic Motion of Nano Particles of a Micropolar Fluid with Heat and Mass Transfer Effect in an Inclined Tube

Cited by 7 publications

References 12 publications

Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Rheology Of Blood Flow With Nano Particles In An Elastic Tube

Entropy generation and curvature effect on peristaltic thrusting of (Cu–Al2O3) hybrid nanofluid in resilient channel: Nonlinear analysis

A Mathematical Approach to Study the Blood Flow Through Stenosed Artery with Suspension of Nanoparticles

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Entropy generation and curvature effect on peristaltic thrusting of (Cu–Al₂O₃) hybrid nanofluid in resilient channel: Nonlinear analysis