Nano Fluid Flow Analysis in the Presence of Slip Effects and Wall Properties by Means of Contraction and Expansion

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英文篇名：Nano Fluid Flow Analysis in the Presence of Slip Effects and Wall Properties by Means of Contraction and Expansion 作者：Hina ; Sadaf ; Rabia ; Malik 英文作者：Hina Sadaf;Rabia Malik;DBS&H, CEME, National University of Sciences and Technology;Department of Mathematics and Statistics, International Islamic University; 英文关键词：peristaltic flow;;exact solution;;viscous nanofluid;;mixed convection;;velocity slip conditions;;nonuniform tube;;endoscopic tube;;wall properties 中文刊名：CITP 英文刊名：理论物理(英文版) 机构：DBS&H, CEME, National University of Sciences and Technology;Department of Mathematics and Statistics, International Islamic University; 出版日期：2018-09-01 出版单位：Communications in Theoretical Physics 年：2018 期：v.70 基金：Supported by the project from HEC(SRGP)(No:21-1712/SRGP/R&D/HEC/2017) 语种：英文; 页：CITP201809015 页数：7 CN：09 ISSN：11-2592/O3 分类号：93-99

摘要

The present article is a study of mixed convective peristaltic flow of Cu-blood nanofluid confined in a non-uniform tube along with the velocity slip conditions and wall properties. Endoscopic or catheterized special effects are also taken into description. Upon utilization of the large wavelength and small reynolds number approximation, the non-dimensional governing differential equation took a more simplified form, which is then solved for the exact solutions.Afterwards, these outcomes are offered graphically and are debated in detail. Velocity profile for pure blood as well as Cu-blood and no-slip and slip effects are also discussed separately. Streamlines pattern is also discussed for different physical parameters.
        The present article is a study of mixed convective peristaltic flow of Cu-blood nanofluid confined in a non-uniform tube along with the velocity slip conditions and wall properties. Endoscopic or catheterized special effects are also taken into description. Upon utilization of the large wavelength and small reynolds number approximation, the non-dimensional governing differential equation took a more simplified form, which is then solved for the exact solutions.Afterwards, these outcomes are offered graphically and are debated in detail. Velocity profile for pure blood as well as Cu-blood and no-slip and slip effects are also discussed separately. Streamlines pattern is also discussed for different physical parameters.

引文

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