DPM dispersion inside a single straight entry using dynamic mesh model

Abstract Three-dimensional simulations of diesel particulate matter (DPM) distribution inside a single straight entry for the Load-Haul-Dump loader (LHD)-truck loading and truck hauling operations were conducted by using ANSYS FLUENT computational fluid dynamics software. The loading operation was p...

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Main Authors: Yi Zheng, Ying Li, Magesh Thiruvengadam, Hai Lan, Jerry C. Tien
Format: Article
Language:English
Published: SpringerOpen 2017-08-01
Series:International Journal of Coal Science & Technology
Subjects:
CFD
DPM
Online Access:http://link.springer.com/article/10.1007/s40789-017-0179-9
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spelling doaj-f6120ccf63b04511a6ea73ce4b30f8842021-03-02T04:28:45ZengSpringerOpenInternational Journal of Coal Science & Technology2095-82932198-78232017-08-014323424410.1007/s40789-017-0179-9DPM dispersion inside a single straight entry using dynamic mesh modelYi Zheng0Ying Li1Magesh Thiruvengadam2Hai Lan3Jerry C. Tien4Missouri University of Science and TechnologyMissouri University of Science and TechnologyMissouri University of Science and TechnologyClean Air Power Inc.Monash University Clayton CampusAbstract Three-dimensional simulations of diesel particulate matter (DPM) distribution inside a single straight entry for the Load-Haul-Dump loader (LHD)-truck loading and truck hauling operations were conducted by using ANSYS FLUENT computational fluid dynamics software. The loading operation was performed for a fixed period of 3 min. The dynamic mesh technique in FLUENT was used to study the impact of truck motion on DPM distribution. The resultant DPM distributions are presented for the cases when the truck were driving upstream and downstream of the loading face. Interesting phenomena were revealed in the study including the piston effect, layering of DPM in the roof region, and backflow of diesel exhaust against ventilation. The results from the simulation can be used to determine if the areas inside the face area and straight entry exceed the current U.S. regulatory requirement for DPM concentration (>160 µg/m3). This research can guide the selection of DPM reduction strategies and improve the working practices for the underground miners.http://link.springer.com/article/10.1007/s40789-017-0179-9CFDDPMDynamic meshingPiston effectBackflowBuoyancy effect
collection DOAJ
language English
format Article
sources DOAJ
author Yi Zheng
Ying Li
Magesh Thiruvengadam
Hai Lan
Jerry C. Tien
spellingShingle Yi Zheng
Ying Li
Magesh Thiruvengadam
Hai Lan
Jerry C. Tien
DPM dispersion inside a single straight entry using dynamic mesh model
International Journal of Coal Science & Technology
CFD
DPM
Dynamic meshing
Piston effect
Backflow
Buoyancy effect
author_facet Yi Zheng
Ying Li
Magesh Thiruvengadam
Hai Lan
Jerry C. Tien
author_sort Yi Zheng
title DPM dispersion inside a single straight entry using dynamic mesh model
title_short DPM dispersion inside a single straight entry using dynamic mesh model
title_full DPM dispersion inside a single straight entry using dynamic mesh model
title_fullStr DPM dispersion inside a single straight entry using dynamic mesh model
title_full_unstemmed DPM dispersion inside a single straight entry using dynamic mesh model
title_sort dpm dispersion inside a single straight entry using dynamic mesh model
publisher SpringerOpen
series International Journal of Coal Science & Technology
issn 2095-8293
2198-7823
publishDate 2017-08-01
description Abstract Three-dimensional simulations of diesel particulate matter (DPM) distribution inside a single straight entry for the Load-Haul-Dump loader (LHD)-truck loading and truck hauling operations were conducted by using ANSYS FLUENT computational fluid dynamics software. The loading operation was performed for a fixed period of 3 min. The dynamic mesh technique in FLUENT was used to study the impact of truck motion on DPM distribution. The resultant DPM distributions are presented for the cases when the truck were driving upstream and downstream of the loading face. Interesting phenomena were revealed in the study including the piston effect, layering of DPM in the roof region, and backflow of diesel exhaust against ventilation. The results from the simulation can be used to determine if the areas inside the face area and straight entry exceed the current U.S. regulatory requirement for DPM concentration (>160 µg/m3). This research can guide the selection of DPM reduction strategies and improve the working practices for the underground miners.
topic CFD
DPM
Dynamic meshing
Piston effect
Backflow
Buoyancy effect
url http://link.springer.com/article/10.1007/s40789-017-0179-9
work_keys_str_mv AT yizheng dpmdispersioninsideasinglestraightentryusingdynamicmeshmodel
AT yingli dpmdispersioninsideasinglestraightentryusingdynamicmeshmodel
AT mageshthiruvengadam dpmdispersioninsideasinglestraightentryusingdynamicmeshmodel
AT hailan dpmdispersioninsideasinglestraightentryusingdynamicmeshmodel
AT jerryctien dpmdispersioninsideasinglestraightentryusingdynamicmeshmodel
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