Model constant C of turbulent NO reaction time model

The NO concentration of turbulent jet flames with different fuel, jet velocity, and jet diameter are simulated with the turbulent NO reaction time model. The predicted NO profile has very good agreement with the experimental data. Each flame has an optimal model constant C value. By comparing the fl...

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Main Authors: Qiong Li, Yuexinzhu Lan, Peiyong Wang
Format: Article
Language:English
Published: Elsevier 2017-09-01
Series:Case Studies in Thermal Engineering
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2214157X1730240X
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spelling doaj-cac8b70410074e4a929b8c1228536fc62020-11-24T22:48:11ZengElsevierCase Studies in Thermal Engineering2214-157X2017-09-0110C49249810.1016/j.csite.2017.10.008Model constant C of turbulent NO reaction time modelQiong Li0Yuexinzhu Lan1Peiyong Wang2College of Mechanical Engineering and Automation, Huaqiao University, Xiamen 361021, ChinaDepartment of Propulsion Engineering, Xiamen University, Xiamen 361005, ChinaDepartment of Propulsion Engineering, Xiamen University, Xiamen 361005, ChinaThe NO concentration of turbulent jet flames with different fuel, jet velocity, and jet diameter are simulated with the turbulent NO reaction time model. The predicted NO profile has very good agreement with the experimental data. Each flame has an optimal model constant C value. By comparing the flames with different operation condition and fuel, it is found out that the C value is insensitive to the operation condition such as jet velocity and jet diameter. The C value is mainly determined by fuel, its diffusion and reaction characteristics. The faster the fuel and air mix and react, the larger the C value. The fuel/N2 mass diffusion coefficient is chosen to represent fuel's diffusion characteristic, and the flame speed of stoichiomatric fuel/air mixture is chosen to represent fuel's reaction characteristic. From the data of the six flames, accurate correlations among model constant C, mass diffusion coefficient, and flame speed are established.http://www.sciencedirect.com/science/article/pii/S2214157X1730240XTurbulent NO reaction time modelNOx emissionTurbulent diffusion flamesTurbulent combustion simulationModel constant
collection DOAJ
language English
format Article
sources DOAJ
author Qiong Li
Yuexinzhu Lan
Peiyong Wang
spellingShingle Qiong Li
Yuexinzhu Lan
Peiyong Wang
Model constant C of turbulent NO reaction time model
Case Studies in Thermal Engineering
Turbulent NO reaction time model
NOx emission
Turbulent diffusion flames
Turbulent combustion simulation
Model constant
author_facet Qiong Li
Yuexinzhu Lan
Peiyong Wang
author_sort Qiong Li
title Model constant C of turbulent NO reaction time model
title_short Model constant C of turbulent NO reaction time model
title_full Model constant C of turbulent NO reaction time model
title_fullStr Model constant C of turbulent NO reaction time model
title_full_unstemmed Model constant C of turbulent NO reaction time model
title_sort model constant c of turbulent no reaction time model
publisher Elsevier
series Case Studies in Thermal Engineering
issn 2214-157X
publishDate 2017-09-01
description The NO concentration of turbulent jet flames with different fuel, jet velocity, and jet diameter are simulated with the turbulent NO reaction time model. The predicted NO profile has very good agreement with the experimental data. Each flame has an optimal model constant C value. By comparing the flames with different operation condition and fuel, it is found out that the C value is insensitive to the operation condition such as jet velocity and jet diameter. The C value is mainly determined by fuel, its diffusion and reaction characteristics. The faster the fuel and air mix and react, the larger the C value. The fuel/N2 mass diffusion coefficient is chosen to represent fuel's diffusion characteristic, and the flame speed of stoichiomatric fuel/air mixture is chosen to represent fuel's reaction characteristic. From the data of the six flames, accurate correlations among model constant C, mass diffusion coefficient, and flame speed are established.
topic Turbulent NO reaction time model
NOx emission
Turbulent diffusion flames
Turbulent combustion simulation
Model constant
url http://www.sciencedirect.com/science/article/pii/S2214157X1730240X
work_keys_str_mv AT qiongli modelconstantcofturbulentnoreactiontimemodel
AT yuexinzhulan modelconstantcofturbulentnoreactiontimemodel
AT peiyongwang modelconstantcofturbulentnoreactiontimemodel
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