Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems

<em>In the present research we investigate pressure driven flow in the transition and free-molecular flow regimes with the objective of developing unified flow models for microchannels. These models are based on a velocity scaling law, which is valid for a wide range of Knudsen number. Simple...

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Main Authors: B. V. Kosoy, Y. Utaka
Format: Article
Language:English
Published: Odesa National University of Technology 2017-12-01
Series:Holodilʹnaâ Tehnika i Tehnologiâ
Subjects:
Online Access:http://journals.gsjp.eu/index.php/reftech/article/view/923
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author B. V. Kosoy
Y. Utaka
author_facet B. V. Kosoy
Y. Utaka
author_sort B. V. Kosoy
collection DOAJ
description <em>In the present research we investigate pressure driven flow in the transition and free-molecular flow regimes with the objective of developing unified flow models for microchannels. These models are based on a velocity scaling law, which is valid for a wide range of Knudsen number. Simple slip-based descriptions of flowrate in microchannels are corrected for effects in the transition and free-molecular flow regimes with the introduction of a rarefaction factor. The resulting models can predict the velocity distribution, mass flowrate, pressure and shear stress distribution in rectangular microchannels in the entire Knudsen flow regime.</em>
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spelling doaj.art-4955aa1aba4f427e97ed5f05687532c12022-12-22T02:40:30ZengOdesa National University of TechnologyHolodilʹnaâ Tehnika i Tehnologiâ0453-83072409-67922017-12-0153610.15673/ret.v53i6.923838Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control SystemsB. V. Kosoy0Y. Utaka1Odesa National Academy of Food Technologies, 112 Kanatna str., Odesa, 65039, UkraineTamagawa University, 6-1-1 Tamagawagakuen, Machida, Tokyo, 194-8610, JAPAN<em>In the present research we investigate pressure driven flow in the transition and free-molecular flow regimes with the objective of developing unified flow models for microchannels. These models are based on a velocity scaling law, which is valid for a wide range of Knudsen number. Simple slip-based descriptions of flowrate in microchannels are corrected for effects in the transition and free-molecular flow regimes with the introduction of a rarefaction factor. The resulting models can predict the velocity distribution, mass flowrate, pressure and shear stress distribution in rectangular microchannels in the entire Knudsen flow regime.</em>http://journals.gsjp.eu/index.php/reftech/article/view/923FlowMicrochannelModelVelocity Scaling LawKnudsen Flow RegimeFlowrate ScalingMicroelectronics Thermal Control Systems
spellingShingle B. V. Kosoy
Y. Utaka
Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
Holodilʹnaâ Tehnika i Tehnologiâ
Flow
Microchannel
Model
Velocity Scaling Law
Knudsen Flow Regime
Flowrate Scaling
Microelectronics Thermal Control Systems
title Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
title_full Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
title_fullStr Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
title_full_unstemmed Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
title_short Gas Velosity and Mass Flowrate Scaling Modeling in Microelectronics’ Thermal Control Systems
title_sort gas velosity and mass flowrate scaling modeling in microelectronics thermal control systems
topic Flow
Microchannel
Model
Velocity Scaling Law
Knudsen Flow Regime
Flowrate Scaling
Microelectronics Thermal Control Systems
url http://journals.gsjp.eu/index.php/reftech/article/view/923
work_keys_str_mv AT bvkosoy gasvelosityandmassflowratescalingmodelinginmicroelectronicsthermalcontrolsystems
AT yutaka gasvelosityandmassflowratescalingmodelinginmicroelectronicsthermalcontrolsystems