DocumentCode
3276959
Title
Numerical Simulation Study on Chemical Kinetics Mechanism of Biodiesel Combustion
Author
Haozhong Huang ; Ruiqing Zhao ; Hui Chen ; Fengzhu Lu ; Yuanfei Liang
Author_Institution
Mech. Eng. Coll., Guangxi Univ., Nanning, China
fYear
2013
fDate
16-18 Jan. 2013
Firstpage
1015
Lastpage
1018
Abstract
A numerical simulation study on chemical kinetics of engine combustion fueled with biodiesel was performed by using zero dimension single-zone model coupled with a detailed kinetic model. The main pathway of biodiesel combustion was obtained by analyzing key elementary reactions, production rates of key intermediate species and radicals of oxidation process under engine boundary condition. The results showed that, the combustion of biodiesel consisted of a low temperature heat release period and a high temperature heat release period. The dehydrogenation reaction was main pathway of biodiesel consumption in low temperature stage, and the decomposition of the fuel and dehydrogenation reaction were main pathways in high temperature stage. OH radical played a leading role in the dehydrogenation of fuel both in low and high temperature stage.
Keywords
biofuel; combustion; hydrogenation; internal combustion engines; numerical analysis; oxidation; reaction kinetics; biodiesel combustion; biodiesel consumption; chemical kinetics mechanism; dehydrogenation reaction; engine boundary condition; engine combustion; fuel decomposition; high temperature heat release period; key elementary reaction analysis; key intermediate species production rates; kinetic model; low temperature heat release period; numerical simulation study; radical oxidation process; zero dimension single-zone model; Biofuels; Biological system modeling; Chemicals; Combustion; Heating; Kinetic theory; Biodiesel; Chemical Kinetics; Combustion; Numerical Simulation;
fLanguage
English
Publisher
ieee
Conference_Titel
Intelligent System Design and Engineering Applications (ISDEA), 2013 Third International Conference on
Conference_Location
Hong Kong
Print_ISBN
978-1-4673-4893-5
Type
conf
DOI
10.1109/ISDEA.2012.239
Filename
6456161
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