Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios

Tracer gases are an effective method for assessment of mine ventilation systems, but their dispersion characteristics can differ substantially as ventilation parameters, such as flow path and velocity, vary. This research utilizes Computational Fluid Dynamics (CFD) to model a simplified full scale m...

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Main Authors: Xu, Guang, Jong, E., Luxbacher, K., Ragab, S.
Format: Conference Paper
Published: 2012
Online Access:http://hdl.handle.net/20.500.11937/53568
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author Xu, Guang
Jong, E.
Luxbacher, K.
Ragab, S.
author_facet Xu, Guang
Jong, E.
Luxbacher, K.
Ragab, S.
author_sort Xu, Guang
building Curtin Institutional Repository
collection Online Access
description Tracer gases are an effective method for assessment of mine ventilation systems, but their dispersion characteristics can differ substantially as ventilation parameters, such as flow path and velocity, vary. This research utilizes Computational Fluid Dynamics (CFD) to model a simplified full scale model mine, details a sensitivity study examining mesh size for an underground coal mine simulation, and examines gas dispersion parameters to determine the optimal model methods for simulation of tracer gases in underground coal mines. These models can be used to determine how a given tracer gas profile might be generated in a mine or areas of a mine that are not accessible, for example, immediately following a mine disaster. Accurate simulation scenarios can allow for the remote determination of the status of the ventilation network, but the sensitivity of the simulation at mine scale must be carefully examined. Copyright © 2012 by SME.
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format Conference Paper
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institution Curtin University Malaysia
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last_indexed 2025-11-14T09:55:41Z
publishDate 2012
recordtype eprints
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spelling curtin-20.500.11937-535682017-06-23T03:00:22Z Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios Xu, Guang Jong, E. Luxbacher, K. Ragab, S. Tracer gases are an effective method for assessment of mine ventilation systems, but their dispersion characteristics can differ substantially as ventilation parameters, such as flow path and velocity, vary. This research utilizes Computational Fluid Dynamics (CFD) to model a simplified full scale model mine, details a sensitivity study examining mesh size for an underground coal mine simulation, and examines gas dispersion parameters to determine the optimal model methods for simulation of tracer gases in underground coal mines. These models can be used to determine how a given tracer gas profile might be generated in a mine or areas of a mine that are not accessible, for example, immediately following a mine disaster. Accurate simulation scenarios can allow for the remote determination of the status of the ventilation network, but the sensitivity of the simulation at mine scale must be carefully examined. Copyright © 2012 by SME. 2012 Conference Paper http://hdl.handle.net/20.500.11937/53568 restricted
spellingShingle Xu, Guang
Jong, E.
Luxbacher, K.
Ragab, S.
Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title_full Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title_fullStr Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title_full_unstemmed Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title_short Computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
title_sort computational fluid dynamics study of tracer gas dispersion in a mine after different ventilation damage scenarios
url http://hdl.handle.net/20.500.11937/53568