CFD analysis of temperature distribution in can-type combustor firing synthetic gas

This paper presents CFD analysis of the effect of syngas combustion in a full scale gas turbine combustor with specific emphasis given to the flame and flue gas temperature distribution. A base case solution was first established using conventional natural gas combustion. Actual operating boundary c...

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Main Authors: Hasini H., Shuaib N.H., Wan Abdullah W.A.F.
Other Authors: 6507435998
Format: Conference Paper
Published: 2023
Subjects:
CFD
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Institution: Universiti Tenaga Nasional
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spelling my.uniten.dspace-293562024-04-18T10:23:22Z CFD analysis of temperature distribution in can-type combustor firing synthetic gas Hasini H. Shuaib N.H. Wan Abdullah W.A.F. 6507435998 13907934500 55898815500 Can-type combustor CFD Combustion Natural gas Syngas Carbon dioxide Combustion Computational fluid dynamics Flue gases Mechanical engineering Natural gas Synthesis gas Temperature distribution Flame temperatures Flue gas temperatures Gas turbine combustor Maximum flame temperature Natural gas combustion Pollutant species Syn-gas Syngas combustion Combustors This paper presents CFD analysis of the effect of syngas combustion in a full scale gas turbine combustor with specific emphasis given to the flame and flue gas temperature distribution. A base case solution was first established using conventional natural gas combustion. Actual operating boundary conditions such as swirl, diffusion and fuel mass flow were imposed on the model. The simulation result is validated with the flame temperature of typical natural gas combustion. Result from flow and combustion calculation shows reasonable trend of the swirl mixing effect. The maximum flame temperature was found to be the highest for syngas with the highest H2/CO ratio. However, the flue gas temperature was found to be approximately identical for all cases. The prediction of temperature distribution in the combustor would enable further estimation of pollutant species such as CO2 and NOx in complex regions within the combustor. � (2013) Trans Tech Publications, Switzerland. Final 2023-12-28T04:12:44Z 2023-12-28T04:12:44Z 2013 Conference Paper 10.4028/www.scientific.net/AMM.393.741 2-s2.0-84886266142 https://www.scopus.com/inward/record.uri?eid=2-s2.0-84886266142&doi=10.4028%2fwww.scientific.net%2fAMM.393.741&partnerID=40&md5=a7a0f92d4663566ebc1b6c69b9955dd3 https://irepository.uniten.edu.my/handle/123456789/29356 393 741 746 Scopus
institution Universiti Tenaga Nasional
building UNITEN Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Tenaga Nasional
content_source UNITEN Institutional Repository
url_provider http://dspace.uniten.edu.my/
topic Can-type combustor
CFD
Combustion
Natural gas
Syngas
Carbon dioxide
Combustion
Computational fluid dynamics
Flue gases
Mechanical engineering
Natural gas
Synthesis gas
Temperature distribution
Flame temperatures
Flue gas temperatures
Gas turbine combustor
Maximum flame temperature
Natural gas combustion
Pollutant species
Syn-gas
Syngas combustion
Combustors
spellingShingle Can-type combustor
CFD
Combustion
Natural gas
Syngas
Carbon dioxide
Combustion
Computational fluid dynamics
Flue gases
Mechanical engineering
Natural gas
Synthesis gas
Temperature distribution
Flame temperatures
Flue gas temperatures
Gas turbine combustor
Maximum flame temperature
Natural gas combustion
Pollutant species
Syn-gas
Syngas combustion
Combustors
Hasini H.
Shuaib N.H.
Wan Abdullah W.A.F.
CFD analysis of temperature distribution in can-type combustor firing synthetic gas
description This paper presents CFD analysis of the effect of syngas combustion in a full scale gas turbine combustor with specific emphasis given to the flame and flue gas temperature distribution. A base case solution was first established using conventional natural gas combustion. Actual operating boundary conditions such as swirl, diffusion and fuel mass flow were imposed on the model. The simulation result is validated with the flame temperature of typical natural gas combustion. Result from flow and combustion calculation shows reasonable trend of the swirl mixing effect. The maximum flame temperature was found to be the highest for syngas with the highest H2/CO ratio. However, the flue gas temperature was found to be approximately identical for all cases. The prediction of temperature distribution in the combustor would enable further estimation of pollutant species such as CO2 and NOx in complex regions within the combustor. � (2013) Trans Tech Publications, Switzerland.
author2 6507435998
author_facet 6507435998
Hasini H.
Shuaib N.H.
Wan Abdullah W.A.F.
format Conference Paper
author Hasini H.
Shuaib N.H.
Wan Abdullah W.A.F.
author_sort Hasini H.
title CFD analysis of temperature distribution in can-type combustor firing synthetic gas
title_short CFD analysis of temperature distribution in can-type combustor firing synthetic gas
title_full CFD analysis of temperature distribution in can-type combustor firing synthetic gas
title_fullStr CFD analysis of temperature distribution in can-type combustor firing synthetic gas
title_full_unstemmed CFD analysis of temperature distribution in can-type combustor firing synthetic gas
title_sort cfd analysis of temperature distribution in can-type combustor firing synthetic gas
publishDate 2023
_version_ 1806423480764203008