REPOSITORIO
INSTITUCIONAL

    • español
    • English
  • Site map
  • English 
    • español
    • English
  • Login
  • Artículos(current)
  • Libros
  • Tesis
  • Trabajos de grado
  • Documentos Institucionales
    • Actas
    • Acuerdos
    • Decretos
    • Resoluciones
  • Multimedia
  • Productos de investigación
  • Acerca de
View Item 
  •   Home
  • Artículos
  • Indexados Scopus
  • View Item
  •   Home
  • Artículos
  • Indexados Scopus
  • View Item
JavaScript is disabled for your browser. Some features of this site may not work without it.

Numerical simulation of the combustion stability of natural gas and syngas in a surface-stabilized combustion burner

Thumbnail
Share this
Author
Arrieta C.E.
García A.
Cardona A.
Bedoya I.
Amell A.

Citación

       
TY - GEN T1 - Numerical simulation of the combustion stability of natural gas and syngas in a surface-stabilized combustion burner AU - Arrieta C.E. AU - García A. AU - Cardona A. AU - Bedoya I. AU - Amell A. UR - http://hdl.handle.net/11407/5667 PB - Institute of Physics Publishing AB - Surface-stabilized combustion burners is a promising combustion technique that has been studied for more than a decade. However, in the design stage of these burners is hard to determine if under certain operating conditions the burner would operate adequately. In this paper, we performed a numerical approach to predict the flame stability in a surface-stabilized combustion burner. Here we considered a numerical approach that includes simultaneous solution of mass and energy balance for both, the gas and solid phase, as well as a proper estimation of thermo-chemical and thermo-physical properties. The numerical model was validated against experimental data reported in previous studies. These data involve results with natural gas and the blending of natural gas with three high hydrogen content synthetic gases in equimolar proportions. We evaluated three synthetic gases with high hydrogen contents ranging from 60% H2 to 75% H2. The data also involve thermal power from 300 to 500 kW/m2. The results indicate that the numerical approach described in this work predicts very well the flame stability and temperature profile within the porous media. Therefore, it can be used to study surface-stabilized combustion burners. © Published under licence by IOP Publishing Ltd. ER - @misc{11407_5667, author = {Arrieta C.E. and García A. and Cardona A. and Bedoya I. and Amell A.}, title = {Numerical simulation of the combustion stability of natural gas and syngas in a surface-stabilized combustion burner}, year = {}, abstract = {Surface-stabilized combustion burners is a promising combustion technique that has been studied for more than a decade. However, in the design stage of these burners is hard to determine if under certain operating conditions the burner would operate adequately. In this paper, we performed a numerical approach to predict the flame stability in a surface-stabilized combustion burner. Here we considered a numerical approach that includes simultaneous solution of mass and energy balance for both, the gas and solid phase, as well as a proper estimation of thermo-chemical and thermo-physical properties. The numerical model was validated against experimental data reported in previous studies. These data involve results with natural gas and the blending of natural gas with three high hydrogen content synthetic gases in equimolar proportions. We evaluated three synthetic gases with high hydrogen contents ranging from 60% H2 to 75% H2. The data also involve thermal power from 300 to 500 kW/m2. The results indicate that the numerical approach described in this work predicts very well the flame stability and temperature profile within the porous media. Therefore, it can be used to study surface-stabilized combustion burners. © Published under licence by IOP Publishing Ltd.}, url = {http://hdl.handle.net/11407/5667} }RT Generic T1 Numerical simulation of the combustion stability of natural gas and syngas in a surface-stabilized combustion burner A1 Arrieta C.E. A1 García A. A1 Cardona A. A1 Bedoya I. A1 Amell A. LK http://hdl.handle.net/11407/5667 PB Institute of Physics Publishing AB Surface-stabilized combustion burners is a promising combustion technique that has been studied for more than a decade. However, in the design stage of these burners is hard to determine if under certain operating conditions the burner would operate adequately. In this paper, we performed a numerical approach to predict the flame stability in a surface-stabilized combustion burner. Here we considered a numerical approach that includes simultaneous solution of mass and energy balance for both, the gas and solid phase, as well as a proper estimation of thermo-chemical and thermo-physical properties. The numerical model was validated against experimental data reported in previous studies. These data involve results with natural gas and the blending of natural gas with three high hydrogen content synthetic gases in equimolar proportions. We evaluated three synthetic gases with high hydrogen contents ranging from 60% H2 to 75% H2. The data also involve thermal power from 300 to 500 kW/m2. The results indicate that the numerical approach described in this work predicts very well the flame stability and temperature profile within the porous media. Therefore, it can be used to study surface-stabilized combustion burners. © Published under licence by IOP Publishing Ltd. OL Spanish (121)
Gestores bibliográficos
Refworks
Zotero
BibTeX
CiteULike
Metadata
Show full item record
Abstract
Surface-stabilized combustion burners is a promising combustion technique that has been studied for more than a decade. However, in the design stage of these burners is hard to determine if under certain operating conditions the burner would operate adequately. In this paper, we performed a numerical approach to predict the flame stability in a surface-stabilized combustion burner. Here we considered a numerical approach that includes simultaneous solution of mass and energy balance for both, the gas and solid phase, as well as a proper estimation of thermo-chemical and thermo-physical properties. The numerical model was validated against experimental data reported in previous studies. These data involve results with natural gas and the blending of natural gas with three high hydrogen content synthetic gases in equimolar proportions. We evaluated three synthetic gases with high hydrogen contents ranging from 60% H2 to 75% H2. The data also involve thermal power from 300 to 500 kW/m2. The results indicate that the numerical approach described in this work predicts very well the flame stability and temperature profile within the porous media. Therefore, it can be used to study surface-stabilized combustion burners. © Published under licence by IOP Publishing Ltd.
URI
http://hdl.handle.net/11407/5667
Collections
  • Indexados Scopus [2005]

Related items

Showing items related by title, author, creator and subject.

  • Thumbnail

    Kinetics of Combustion of Densified Fuels from Residues of Isabella Grape Processing (Vitis labrusca L.) 

    Rojas González, Andrés Felipe; Ruales-Salcedo, Ángela Viviana; Velasco Sarria, Francisco Javier (Universidad de MedellínFacultad de IngenieríasMedellín, 2018-07-04)
  • Thumbnail

    An experimental study of combustion stability and emissions characteristics of a surface-stabilized combustion burner fueled with natural gas-syngas blends 

    Arrieta C.E.; García A.; Yepes H.A.; Bedoya I.; Amell A.
    The aim of this paper is to investigate the effects of replacing natural gas with synthetic gases on the combustion stability and the combustion pollutants of a surface-stabilized combustion burner. We evaluated three ...
  • Thumbnail

    Combustion of a hydrogen/carbon monoxide/carbon dioxide mixture in hot and diluted streams 

    Cardona-Vargas A.; Valencia D.; Arrieta C.E.; Amell A.
    This work presents an experimental investigation on the combustion behavior of a mixture of hydrogen, carbon monoxide and carbon dioxide in hot and diluted streams, like those obtain under flameless combustion regimes. A ...
All of RI UdeMCommunities & CollectionsBy Issue DateAuthorsTitlesSubjectsThis CollectionBy Issue DateAuthorsTitlesSubjects
My AccountLoginRegister
Statistics GTMView statistics GTM
OFERTA ACADÉMICA
  • Oferta académica completa
  • Facultad de Derecho
  • Facultad de Comunicación
  • Facultad de Ingenierías
  • Facultad de Ciencias Económicas y Administrativas
  • Facultad de Ciencias Sociales y Humanas
  • Facultad de Ciencias Básicas
  • Facultad de Diseño
SERVICIOS
  • Teatro
  • Educación continuada
  • Centro de Idiomas
  • Consultorio Jurídico
  • Centro de Asesorías y Consultorías
  • Prácticas empresariales
  • Operadora Profesional de Certámenes
INVESTIGACIÓN
  • Biblioteca
  • Centros de investigación
  • Revistas científicas
  • Repositorio institucional
  • Universidad - Empresa - Estado - Sociedad

Universidad de Medellín - Teléfono: +57 (4) 590 4500 Ext. 11422 - Dirección: Carrera 87 N° 30 - 65 Medellín - Colombia - Suramérica
© Copyright 2012 ® Todos los Derechos Reservados
Contacto

 infotegra.com