Low temperature catalytic steam reforming of propane-methane mixture into methane-rich gas: Experiment and macrokinetic modeling

被引:33
|
作者
Zyryanova, M. M.
Snytnikov, P. V.
Shigarov, A. B.
Belyaev, V. D.
Kirillov, V. A.
Sobyanin, V. A.
机构
[1] SB RAS, Boreskov Inst Catalysis, Novosibirsk, Russia
[2] Novosibirsk State Univ, Novosibirsk 630090, Russia
[3] UNICAT Ltd, Novosibirsk, Russia
关键词
Catalytic steam prereforming; Propane; Methane-rich gas; Macrokinetic modeling; Utilization of associated petroleum gas; HYDROGEN-PRODUCTION; NATURAL-GAS; N-BUTANE; HYDROCARBONS; OPERATION;
D O I
10.1016/j.fuel.2014.06.032
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Steam reforming of propane-methane mixture into methane-rich gas was studied in a fixed-bed continuous- flow reactor in a temperature interval of 150-325 degrees C under atmospheric pressure over Ni-based catalyst. It was found that the catalyst had good performance under low steam-to-carbon ratio of 0.39-0.58 and provided equilibrium product distribution at GHSV = 670-3100 h (1). Macrokinetic modeling of the experimental data obtained was performed in the framework of isothermal plug-flow reactor model. For the first time the two-step macro-kinetic scheme was suggested, that includes the reactions of irreversible propane steam reforming (first-order on propane): C3H8 + 6H(2)O -> 3CO(2) + 10H(2) with activation energy 112 kJ/mole and reversible CO2 methanation (first-order on hydrogen): CO2 + 4H(2) reversible arrow CH4 + 2H(2)O with activation energy 50 kJ/mole. It was shown that the proposed scheme describes quantitatively all the experimental results. (C) 2014 Elsevier Ltd. All rights reserved.
引用
收藏
页码:76 / 82
页数:7
相关论文
共 50 条
  • [41] Towards H2-rich gas production from unmixed steam reforming of methane: Thermodynamic modeling
    da Silva, Aline Lima
    Mueller, Iduvirges Lourdes
    JOURNAL OF POWER SOURCES, 2011, 196 (20) : 8568 - 8582
  • [42] Ni-MOx-Al2O3 (M = Mg, Cr, Ce) catalysts prepared by Pechini technique for low temperature steam reforming of light hydrocarbons into methane-rich gas
    Uskov, S. I.
    Potemkin, D. I.
    Snytnikov, P. V.
    Belyaev, V. D.
    Bulavchenko, O. A.
    Simonov, P. A.
    Sobyanin, V. A.
    MATERIALS LETTERS, 2018, 221 : 18 - 21
  • [43] Experimental Research on Low-Temperature Methane Steam Reforming Technology in a Chemically Recuperated Gas Turbine
    Liu, Qian
    Zheng, Hongtao
    ENERGY & FUELS, 2014, 28 (10) : 6596 - 6603
  • [44] Pseudo heterogeneous modeling of catalytic methane steam reforming process in a fixed bed reactor
    Sadooghi, Parham
    Rauch, Reinhard
    JOURNAL OF NATURAL GAS SCIENCE AND ENGINEERING, 2013, 11 : 46 - 51
  • [45] Modeling of a metal monolith catalytic reactor for methane steam reforming-combustion coupling
    Mei, Hong
    Li, Chengyue
    Ji, Shengfu
    Liu, Hui
    CHEMICAL ENGINEERING SCIENCE, 2007, 62 (16) : 4294 - 4303
  • [46] Production of hydrogen-rich gases from steam reforming of methane in an automatic catalytic microreactor
    Levent, M
    Gunn, DJ
    El-Bousiffi, MA
    INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2003, 28 (09) : 945 - 959
  • [47] Low Temperature Steam Methane Reforming Over Ni Based Catalytic Membrane Prepared by Electroless Palladium Plating
    Lee, Sang Moon
    Hong, Sung Chang
    Kim, Sung Su
    JOURNAL OF NANOSCIENCE AND NANOTECHNOLOGY, 2018, 18 (09) : 6398 - 6403
  • [48] Steam-methane reforming at low temperature on nickel-based catalysts
    Nieva, Maria A.
    Villaverde, Maria M.
    Monzon, Antonio
    Garetto, Teresita F.
    Marchi, Alberto J.
    CHEMICAL ENGINEERING JOURNAL, 2014, 235 : 158 - 166
  • [49] Experimental and Numerical Study of Low Temperature Methane Steam Reforming for Hydrogen Production
    Khzouz, Martin
    Gkanas, Evangelos I.
    CATALYSTS, 2018, 8 (01):
  • [50] Optimization of an experimental membrane reactor for low-temperature methane steam reforming
    Kyriakides, Alexios-Spyridon
    Voutetakis, Spyros
    Papadopoulou, Simira
    Seferlis, Panos
    CLEAN TECHNOLOGIES AND ENVIRONMENTAL POLICY, 2016, 18 (07) : 2065 - 2075