Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump

Magnetohydrodynamic micropumps received more attention due to its applications in pumping of biological and chemical specimens, such as blood, DNA, and saline buffers. In this paper the MHD flow in different cross section microchannels has been numerically investigated with different electromagnetic...

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Main Authors: Mushtaq Ismael Hasan, Abdul Jabbar F. Ali, Rhan S. Tufah
Format: Article
Language:English
Published: Elsevier 2017-06-01
Series:Engineering Science and Technology, an International Journal
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2215098616309521
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spelling doaj-e2001b0a32594c879f3964abda4d2b262020-11-25T02:29:37ZengElsevierEngineering Science and Technology, an International Journal2215-09862017-06-0120398298910.1016/j.jestch.2017.01.008Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pumpMushtaq Ismael Hasan0Abdul Jabbar F. Ali1Rhan S. Tufah2Mechanical Engineering Department, College of Engineering, Thi-Qar University, IraqElectrical Engineering Department, College of Engineering, Wasit University, IraqMechanical Engineering Department, College of Engineering, Wasit University, IraqMagnetohydrodynamic micropumps received more attention due to its applications in pumping of biological and chemical specimens, such as blood, DNA, and saline buffers. In this paper the MHD flow in different cross section microchannels has been numerically investigated with different electromagnetic boundary conditions. Square, rectangular, circular and trapezoidal cross section microchannels have been used to explore the effect of channel geometry on the MHD micropump operation. The study covers a selected range of applied electric currents and magnetic flux to show their effects on MHD flow. Thermal characteristics of MHD flow have been also studied by calculation the temperature distribution through MHD micropump region. The results obtained show a considerable effect of channel geometry, the applied electric and magnetic fields on the velocity and flow rate. The circular cross section micropump gave higher velocity and flow rate compared with other cross sections, and there is a slight increase in temperature due to small effect of Joule heating.http://www.sciencedirect.com/science/article/pii/S2215098616309521MHD flowMicrochannelMicropumpNumerical investigationElectromagnetic
collection DOAJ
language English
format Article
sources DOAJ
author Mushtaq Ismael Hasan
Abdul Jabbar F. Ali
Rhan S. Tufah
spellingShingle Mushtaq Ismael Hasan
Abdul Jabbar F. Ali
Rhan S. Tufah
Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
Engineering Science and Technology, an International Journal
MHD flow
Microchannel
Micropump
Numerical investigation
Electromagnetic
author_facet Mushtaq Ismael Hasan
Abdul Jabbar F. Ali
Rhan S. Tufah
author_sort Mushtaq Ismael Hasan
title Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
title_short Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
title_full Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
title_fullStr Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
title_full_unstemmed Numerical study of the effect of channel geometry on the performance of Magnetohydrodynamic micro pump
title_sort numerical study of the effect of channel geometry on the performance of magnetohydrodynamic micro pump
publisher Elsevier
series Engineering Science and Technology, an International Journal
issn 2215-0986
publishDate 2017-06-01
description Magnetohydrodynamic micropumps received more attention due to its applications in pumping of biological and chemical specimens, such as blood, DNA, and saline buffers. In this paper the MHD flow in different cross section microchannels has been numerically investigated with different electromagnetic boundary conditions. Square, rectangular, circular and trapezoidal cross section microchannels have been used to explore the effect of channel geometry on the MHD micropump operation. The study covers a selected range of applied electric currents and magnetic flux to show their effects on MHD flow. Thermal characteristics of MHD flow have been also studied by calculation the temperature distribution through MHD micropump region. The results obtained show a considerable effect of channel geometry, the applied electric and magnetic fields on the velocity and flow rate. The circular cross section micropump gave higher velocity and flow rate compared with other cross sections, and there is a slight increase in temperature due to small effect of Joule heating.
topic MHD flow
Microchannel
Micropump
Numerical investigation
Electromagnetic
url http://www.sciencedirect.com/science/article/pii/S2215098616309521
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