Numerical simulation of porous burners and hole plate surface burners

In comparison to the free flame burners the porous medium burners, especially those with flame stabilization within the porous material, are characterized by a reduction of the combustion zone temperatures and high combustion efficiency, so that emissions of pollutants are minimized. In the paper th...

Full description

Bibliographic Details
Main Authors: Nemoda Stevan, Trimis Dimosthenis, Živković Goran
Format: Article
Language:English
Published: VINCA Institute of Nuclear Sciences 2004-01-01
Series:Thermal Science
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0354-9836/2004/0354-98360401003N.pdf
id doaj-4a2773b6f587441f9dcbc0d953266d92
record_format Article
spelling doaj-4a2773b6f587441f9dcbc0d953266d922021-01-02T00:13:46ZengVINCA Institute of Nuclear SciencesThermal Science0354-98362334-71632004-01-018131810.2298/TSCI0401003N0354-98360401003NNumerical simulation of porous burners and hole plate surface burnersNemoda Stevan0Trimis Dimosthenis1Živković Goran2Laboratory for Thermal Engineering and Energy, VINČA Institute of Nuclear Sciences P.O. Box, Belgrade, Serbia and MontenegroInstitute of Fluid Mechanics (LSTM), Technical FacultyLaboratory for Thermal Engineering and Energy, VINČA Institute of Nuclear Sciences P.O. Box, Belgrade, Serbia and MontenegroIn comparison to the free flame burners the porous medium burners, especially those with flame stabilization within the porous material, are characterized by a reduction of the combustion zone temperatures and high combustion efficiency, so that emissions of pollutants are minimized. In the paper the finite-volume numerical tool for calculations of the non-isothermal laminar steady-state flow, with chemical reactions in laminar gas flow as well as within porous media is presented. For the porous regions the momentum and energy equations have appropriate corrections. In the momentum equations for the porous region an additional pressure drop has to be considered, which depends on the properties of the porous medium. For the heat transfer within the porous matrix description a heterogeneous model is considered. It treats the solid and gas phase separately, but the phases are coupled via a convective heat exchange term. For the modeling of the reaction of the methane laminar combustion the chemical reaction scheme with 164 reactions and 20 chemical species was used. The proposed numerical tool is applied for the analyses of the combustion and heat transfer processes which take place in porous and surface burners. The numerical experiments are accomplished for different powers of the porous and surface burners, as well as for different heat conductivity character is tics of the porous regions.http://www.doiserbia.nb.rs/img/doi/0354-9836/2004/0354-98360401003N.pdfgas combustionnumerical simulationporous medium burners
collection DOAJ
language English
format Article
sources DOAJ
author Nemoda Stevan
Trimis Dimosthenis
Živković Goran
spellingShingle Nemoda Stevan
Trimis Dimosthenis
Živković Goran
Numerical simulation of porous burners and hole plate surface burners
Thermal Science
gas combustion
numerical simulation
porous medium burners
author_facet Nemoda Stevan
Trimis Dimosthenis
Živković Goran
author_sort Nemoda Stevan
title Numerical simulation of porous burners and hole plate surface burners
title_short Numerical simulation of porous burners and hole plate surface burners
title_full Numerical simulation of porous burners and hole plate surface burners
title_fullStr Numerical simulation of porous burners and hole plate surface burners
title_full_unstemmed Numerical simulation of porous burners and hole plate surface burners
title_sort numerical simulation of porous burners and hole plate surface burners
publisher VINCA Institute of Nuclear Sciences
series Thermal Science
issn 0354-9836
2334-7163
publishDate 2004-01-01
description In comparison to the free flame burners the porous medium burners, especially those with flame stabilization within the porous material, are characterized by a reduction of the combustion zone temperatures and high combustion efficiency, so that emissions of pollutants are minimized. In the paper the finite-volume numerical tool for calculations of the non-isothermal laminar steady-state flow, with chemical reactions in laminar gas flow as well as within porous media is presented. For the porous regions the momentum and energy equations have appropriate corrections. In the momentum equations for the porous region an additional pressure drop has to be considered, which depends on the properties of the porous medium. For the heat transfer within the porous matrix description a heterogeneous model is considered. It treats the solid and gas phase separately, but the phases are coupled via a convective heat exchange term. For the modeling of the reaction of the methane laminar combustion the chemical reaction scheme with 164 reactions and 20 chemical species was used. The proposed numerical tool is applied for the analyses of the combustion and heat transfer processes which take place in porous and surface burners. The numerical experiments are accomplished for different powers of the porous and surface burners, as well as for different heat conductivity character is tics of the porous regions.
topic gas combustion
numerical simulation
porous medium burners
url http://www.doiserbia.nb.rs/img/doi/0354-9836/2004/0354-98360401003N.pdf
work_keys_str_mv AT nemodastevan numericalsimulationofporousburnersandholeplatesurfaceburners
AT trimisdimosthenis numericalsimulationofporousburnersandholeplatesurfaceburners
AT zivkovicgoran numericalsimulationofporousburnersandholeplatesurfaceburners
_version_ 1724364026769571840