Heat Flux Measurement in Shock Heated Combustible Gases and Clarification of Ignition Delay Time

被引:1
|
作者
Kotov, Mikhail A. [1 ]
Kozlov, Pavel, V [2 ]
Gerasimov, Gennady Ya [2 ]
Levashov, Vladimir Yu [2 ]
Shemyakin, Andrey N. [1 ]
Solovyov, Nikolay G. [1 ]
Yakimov, Mikhail Yu [1 ]
Glebov, Vladislav N. [3 ]
Dubrova, Galina A. [3 ]
Malyutin, Andrey M. [3 ]
机构
[1] Russian Acad Sci, Ishlinsky Inst Problems Mech, Prospekt Vernadskogo 101-1, Moscow 119526, Russia
[2] Lomonosov Moscow State Univ, Inst Mech, Michurinskiy Prospect 1, Moscow 119192, Russia
[3] Russian Acad Sci, Inst Laser & Informat Technol, Branch Fed Sci Res Ctr Crystallog & Photon, Svyatoozerskaya Str 1, Moscow 140700, Russia
关键词
propane; air; ignition delay time; heat flux; fast response; shock tube;
D O I
10.3390/fluids7090291
中图分类号
O3 [力学];
学科分类号
08 ; 0801 ;
摘要
Correct understanding of the ignition and combustion processes in the combustion chambers are critical for modeling advanced schemes of engines of high-speed aircraft and promising spacecraft. Moreover, experimental data on the ignition delay time are a universal basis for the development and testing of combustion kinetic models. Moreover, the higher the temperature of the fuel mixture, the smaller this time value and the more important its correct determination. The use of a thermoelectric detector allows to measure ignition delay times and record heat fluxes with a high time resolution (to tenths of mu s) during ignition in propane-air mixtures. Due to the faster response time, the use of it allows refining the ignition delay time of the combustible mixture, and the detector itself can serve as a useful device that allows a more detailed study of the ignition processes.
引用
收藏
页数:6
相关论文
共 50 条
  • [1] Thermoelectric detector application for measuring the ignition delay time in a shock heated combustible mixture
    Kotov, M. A.
    Kozlov, P. V.
    Gerasimov, G. Ya
    Levashov, V. Yu
    Shemyakin, A. N.
    Solovyov, N. G.
    Yakimov, M. Yu
    Glebov, V. N.
    Dubrova, G. A.
    Malyutin, A. M.
    ACTA ASTRONAUTICA, 2023, 204 : 787 - 793
  • [2] IGNITION OF COMBUSTIBLE GASES BY CONVERGING SHOCK WAVES
    FAY, JA
    LEKAWA, E
    JOURNAL OF APPLIED PHYSICS, 1956, 27 (03) : 261 - 266
  • [3] IGNITION DELAY OF COAL PARTICLES IN SHOCK-HEATED AIR
    HWANG, CC
    PILLAY, S
    COMBUSTION SCIENCE AND TECHNOLOGY, 1978, 17 (5-6) : 241 - 245
  • [5] HEAT TRANSFER TO PARTICLES IN SHOCK-HEATED GASES
    NETTLETON, MA
    AIAA JOURNAL, 1966, 4 (05) : 939 - +
  • [6] Pyrolysis and ignition delay time of poly(methyl methacrylate) exposed to ramped heat flux
    Zhai, Chunjie
    Peng, Fei
    Zhou, Xiaodong
    Yang, Lizhong
    JOURNAL OF FIRE SCIENCES, 2018, 36 (03) : 147 - 163
  • [7] Shock Tube Measurement of Ethylene Ignition Delay Time and Molecular Collision Theory Analysis
    Xiong, Xiao-he
    Ding, Yan-jun
    Shi, Shuo
    Peng, Zhi-min
    CHINESE JOURNAL OF CHEMICAL PHYSICS, 2016, 29 (06) : 761 - 766
  • [8] Ignition delay times of shock-heated tetraethoxysilane, hexamethyldisiloxane, and titanium tetraisopropoxide
    Abdali, A.
    Fikri, M.
    Orthner, H.
    Wiggers, H.
    Schulz, C.
    CHEMICAL PHYSICS LETTERS, 2014, 601 : 54 - 58
  • [9] Measurement and modeling of shock-tube ignition delay for propene
    Qin, ZW
    Yang, HX
    Gardiner, WC
    COMBUSTION AND FLAME, 2001, 124 (1-2) : 246 - 254
  • [10] 3D problem of heat and mass transfer at the ignition of a combustible liquid by a heated metal particle
    Kuznetsov, G. V.
    Strizhak, P. A.
    JOURNAL OF ENGINEERING THERMOPHYSICS, 2009, 18 (01) : 72 - 79