Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method

The gaseous flow of monoatomic Argon in a double-sided lid-driven square cavity is investigated using the direct simulation Monte Carlo method for different degrees of rarefaction. The effect of the direction of wall motion and the magnitude of wall velocities on the flow physics are analyzed. Unlik...

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Main Authors: Nabapure Deepak, Kalluri Ram Chandra Murthy
Format: Article
Language:English
Published: VINCA Institute of Nuclear Sciences 2020-01-01
Series:Thermal Science
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900066N.pdf
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spelling doaj-bb2c9fe6d8ff4309bd2326058fa2a93c2021-01-02T11:05:38ZengVINCA Institute of Nuclear SciencesThermal Science0354-98362020-01-01245 Part A3031304510.2298/TSCI180906066N0354-98361900066NSimulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo methodNabapure Deepak0Kalluri Ram Chandra Murthy1Birla Institute of Technology and Science, Department of Mechanical Engineering, Pilani, Hyderabad Campus, Hyderabad, IndiaBirla Institute of Technology and Science, Department of Mechanical Engineering, Pilani, Hyderabad Campus, Hyderabad, IndiaThe gaseous flow of monoatomic Argon in a double-sided lid-driven square cavity is investigated using the direct simulation Monte Carlo method for different degrees of rarefaction. The effect of the direction of wall motion and the magnitude of wall velocities on the flow physics are analyzed. Unlike the single-sided cavity flow, the double-sided cavity flow generates different vortex formations especially for the parallel wall motion of the wall. The problem, therefore, merits a thorough study, which is attempted in the present paper using the direct simulation Monte Carlo method. Certain complex flow phenomena which are not captured using the numerical methods for continuum flows are revealed by the current method employed in the study. Two counter-rotating vortices are observed for the parallel wall motion whereas only one primary vortex can be observed for the antiparallel case. The variation in the flow and thermal properties is found to be significant at the onset of the transition regime and much smaller in the free molecular regime.http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900066N.pdfdiscrete methodsdirect simulation monte carlokinetic theoryknudsen numberlid driven cavityrarefied gas-flows
collection DOAJ
language English
format Article
sources DOAJ
author Nabapure Deepak
Kalluri Ram Chandra Murthy
spellingShingle Nabapure Deepak
Kalluri Ram Chandra Murthy
Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
Thermal Science
discrete methods
direct simulation monte carlo
kinetic theory
knudsen number
lid driven cavity
rarefied gas-flows
author_facet Nabapure Deepak
Kalluri Ram Chandra Murthy
author_sort Nabapure Deepak
title Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
title_short Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
title_full Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
title_fullStr Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
title_full_unstemmed Simulation of flow in single and double-sided lid driven square cavities by direct simulation Monte Carlo method
title_sort simulation of flow in single and double-sided lid driven square cavities by direct simulation monte carlo method
publisher VINCA Institute of Nuclear Sciences
series Thermal Science
issn 0354-9836
publishDate 2020-01-01
description The gaseous flow of monoatomic Argon in a double-sided lid-driven square cavity is investigated using the direct simulation Monte Carlo method for different degrees of rarefaction. The effect of the direction of wall motion and the magnitude of wall velocities on the flow physics are analyzed. Unlike the single-sided cavity flow, the double-sided cavity flow generates different vortex formations especially for the parallel wall motion of the wall. The problem, therefore, merits a thorough study, which is attempted in the present paper using the direct simulation Monte Carlo method. Certain complex flow phenomena which are not captured using the numerical methods for continuum flows are revealed by the current method employed in the study. Two counter-rotating vortices are observed for the parallel wall motion whereas only one primary vortex can be observed for the antiparallel case. The variation in the flow and thermal properties is found to be significant at the onset of the transition regime and much smaller in the free molecular regime.
topic discrete methods
direct simulation monte carlo
kinetic theory
knudsen number
lid driven cavity
rarefied gas-flows
url http://www.doiserbia.nb.rs/img/doi/0354-9836/2020/0354-98361900066N.pdf
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