CFD Analysis of NOX Formation in Biodiesel Non-premixed Turbulent Flame

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Jomekian A.; Bazooyar B.; Shariati A.; Hashemabadi S.H.

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Journal Paper

Paper Information

Journal: Journal of Iranian Chemical Engineering (Farsi Edition) Year:2024 | Volume:23 | Issue:134 Page(s): 109-122

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Information Journal Paper

Title

CFD Analysis of NOX Formation in Biodiesel Non-premixed Turbulent Flame

Author(s)

Jomekian A. | Bazooyar B. | Shariati A. | Hashemabadi S.H. | Issue Writer Certificate

Keywords

NOx Pollutants

non-premixed

turbulent flame

Biodiesel

CFD

Combustion

Abstract

This paper presents a computational fluid dynamics (CFD) analysis of nitrogen monoxide (NO) and nitrogen dioxide (NO2) formation in a Biodiesel turbulent non-premixed flame via Eulerian-Lagrangian concept. The model includes governing conservation equation of mass, momentum and energy, and equations representing the tabulation and transport of NOX (NO+NO2). Discrete Ordinates (DO) was exploited for modeling of heat radiation that increases the accuracy of the computational simulation in prediction of NO. The temperatures, and concentration of NOX are presented and compared with experimentation. The proposed model is able to accurately predict the formation of NOX under many circumstances. However, some discrepancies between the model and experimental data exist because of the surrogate Combustion mechanism employed for Biodiesel fuel and absence of prompt NO in the Combustion mechanism employed in CFD codes.

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