The Correct Treatment of Harmonic Pressure-Flow Behavior in Microchannels
C. Morris, and F. Forster. Micro-Electro-Mechanical Systems (MEMS) - 2000, 2, page 473--479. ASME, (2000)
Abstract
Advances in microfluidic technology give great potential for integrated systems with many components. Because continuum modeling is difficult even for simple systems, low-order modeling is essential to their design. Unsteady flow in microfluidic
components such as channels and valves may require special treatment to achieve accurate low-order models of entire systems. One example is the fixed-valve micropump, in which the interaction between mechanical, electrical, and fluidic components produces maximum pump output at a resonant frequency
near the corner frequency of the valves. In this frequency range the commonly-used value for fluid impedance was found to be in
error by 30\%, causing errors in predictions of pump membrane motion by as much as 300\%. Proper treatment of the pressure-flow relations based on the exact solution of the Navier-Stokes equations for oscillatory flow corrected these deficiencies.
%0 Conference Paper
%1 citeulike:8909522
%A Morris, Christopher J.
%A Forster, Fred K.
%B Micro-Electro-Mechanical Systems (MEMS) - 2000
%D 2000
%K 76d05-incompressible-navier-stokes-equations
%P 473--479
%T The Correct Treatment of Harmonic Pressure-Flow Behavior in Microchannels
%V 2
%X Advances in microfluidic technology give great potential for integrated systems with many components. Because continuum modeling is difficult even for simple systems, low-order modeling is essential to their design. Unsteady flow in microfluidic
components such as channels and valves may require special treatment to achieve accurate low-order models of entire systems. One example is the fixed-valve micropump, in which the interaction between mechanical, electrical, and fluidic components produces maximum pump output at a resonant frequency
near the corner frequency of the valves. In this frequency range the commonly-used value for fluid impedance was found to be in
error by 30\%, causing errors in predictions of pump membrane motion by as much as 300\%. Proper treatment of the pressure-flow relations based on the exact solution of the Navier-Stokes equations for oscillatory flow corrected these deficiencies.
@inproceedings{citeulike:8909522,
abstract = {{Advances in microfluidic technology give great potential for integrated systems with many components. Because continuum modeling is difficult even for simple systems, low-order modeling is essential to their design. Unsteady flow in microfluidic
components such as channels and valves may require special treatment to achieve accurate low-order models of entire systems. One example is the fixed-valve micropump, in which the interaction between mechanical, electrical, and fluidic components produces maximum pump output at a resonant frequency
near the corner frequency of the valves. In this frequency range the commonly-used value for fluid impedance was found to be in
error by 30\%, causing errors in predictions of pump membrane motion by as much as 300\%. Proper treatment of the pressure-flow relations based on the exact solution of the Navier-Stokes equations for oscillatory flow corrected these deficiencies.}},
added-at = {2017-06-29T07:13:07.000+0200},
author = {Morris, Christopher J. and Forster, Fred K.},
biburl = {https://www.bibsonomy.org/bibtex/257c0f66e41b5851dcfa3a0e0ab3cfe97/gdmcbain},
booktitle = {Micro-Electro-Mechanical Systems (MEMS) - 2000},
citeulike-article-id = {8909522},
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intrahash = {57c0f66e41b5851dcfa3a0e0ab3cfe97},
keywords = {76d05-incompressible-navier-stokes-equations},
organization = {ASME},
pages = {473--479},
posted-at = {2011-03-02 06:33:38},
priority = {2},
timestamp = {2017-06-29T07:13:07.000+0200},
title = {{The Correct Treatment of Harmonic Pressure-Flow Behavior in Microchannels}},
volume = 2,
year = 2000
}