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基于极小反应网络方法构建燃烧反应机理:JP-10燃料燃烧

廖爱雪 李宜蔚 毛业兵 李象远

高等学校化学学报2023,Vol.44Issue(12):43-51,9.
高等学校化学学报2023,Vol.44Issue(12):43-51,9.DOI:10.7503/cjcu20230322

基于极小反应网络方法构建燃烧反应机理:JP-10燃料燃烧

Combustion Mechanism Construction Based on Minimized Reaction Network:Combustion of JP-10

廖爱雪 1李宜蔚 1毛业兵 2李象远1

作者信息

  • 1. 四川大学化工学院, 空天动力燃烧与冷却教育部工程研究中心,成都 610065
  • 2. 四川大学化工学院, 机械工程学院, 成都 610065
  • 折叠

摘要

Abstract

JP-10(exo-tetrahydrodicyclopentadiene,C10H16)is widely used as a fuel in detonation engines,missiles,and scramjets due to its low freezing point,high volumetric energy density,and high specific impulse.Most of the JP-10 mechanisms found in literature are detailed mechanisms with a large number of species and reactions,making them difficult to use in high-dimensional numerical simulations.In this study,based on the minimized reaction network(MRN)method,the species and reaction steps from the previously developed C0-C3 mechanism were expanded to construct a JP-10 combustion mechanism with the minimum number of reaction steps and specified number of species,including 36 species and 57 independent reactions.The mechanism employed fully reversible elementary reactions,and the reaction rate constants were described by a dual-parameter form(A,E)of the Arrhenius equation.The mechanism was validated against experimental data,and the results showed that it could reproduce the ignition delay time and laminar flame propagation velocity of JP-10 combustion within a reasonable error range.The mechanism constructed in this study,based on the MRN method and the dual-parameter Arrhenius rate constant approach,combines a small mechanism size with high predictive accuracy.It can provide support for high-fidelity numerical simulations of JP-10 fuel in engineering-scale combustion chambers.

关键词

JP-10/燃烧反应机理/极小反应网络/同时化学平衡

Key words

JP-10/Combustion reaction mechanism/Minimized reaction network/Simultaneous chemical equilibrium

分类

化学化工

引用本文复制引用

廖爱雪,李宜蔚,毛业兵,李象远..基于极小反应网络方法构建燃烧反应机理:JP-10燃料燃烧[J].高等学校化学学报,2023,44(12):43-51,9.

基金项目

国家自然科学基金(批准号:92060101)资助.Supported by the National Natural Science Foundation of China(No.92060101). (批准号:92060101)

高等学校化学学报

OA北大核心CSCDCSTPCD

0251-0790

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