Abstract
The mathematic model of combined converter with two different flow modes of gas-cooled reactor was established. The effects of gas flow mode in gas-cooled reactor on combined converter was investigated with the yield of methanol was 1 400 kt/a. The results show that if the flow mode of the cooling pipe gas and the catalytic bed gas change from countercurrent to concurrent, the catalytic bed temperature distribution does not fit the most optimum temperature curve of reversible exothermic reaction and the heat duty of heat changer in whole process increased seriously, which means that there is much more equipment investment and more operating cost. The gas flow mode of gas-cooled reactor affects the methanol yield slightly. Therefore, the countercurrent gas flow mode of gas-cooled reactor is more lucrative in the combined converter process.
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References
Dry R J, 1988. Possibilities for the development of large capacity methanol synthesis reactors for synfuel production. Industrial and Engineering Chemistry Research, 27: 616–624.
Fan X N, Bai E Z, 2006. Technology development of methanol production and the supply & demand forecast. Chemical Catalyst and Methanol Technology, (3): 14–16.
Grimm P, 1991. Six years successful operation of Linde isothermal reactor. Linde Reports on Science and Technology, 49: 57–59.
Hirotani K, Nakamura H, Shoji K, 1998. Optimum catalytic reactor design for methanol synthesis with TEC MRF-Z reactor. Catalysis Surveys from Japan, 2: 99–106.
Hu G J, Zhang S Z, Wang J H, 2006. Dynamic simulation of lurgi methanol synthesis reactor. Computers and Applied Chemistry, 23(9): 849–852.
Ma H F, Ying W Y, Fang D Y. 2009. Study on methanol synthesis from coal-based syngas. Journal of Coal Science & Engineering (China), 15(1): 98–103.
Shi Y Q, Li T, Ying W Y, Fang D Y, 2006. Simulation and analysis of the operating conditions of methanol synthesis converter. Journal of Chemical Engineering of Chinese Universities, 20(3): 489–493.
Smith R E, Hurmphreys G C, Griffiths G W, 1984. Optimize large methanol plants. Hydrocarbon Processing, 63(5): 95–104.
Sopp E, 1981. Improved methanol process. Hydrocarbon Processing, 60(3): 71–75.
Strel S, 2001. Mega-methanol and what to use it for. Nitrogen & Methanol, 254: 23–30.
Ying W Y, Cao F F H, Fang D Y, 2004. Manufacturing technology of main products in C1 chemical industry. Beijing: Chemical Industry Press: 148–155.
Ying W Y, Fang D Y, Zhu B C, Sun S L, 2000. Simulation of methanol synthesis converter. Journal of East China University of Science and Technology, 26(1): 5–9.
Zhu B C, 2008. Chemical reaction engineering (Fourth Edition). Beijing: Chemical Industry Press, 26.
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Supported by the National Science & Technology Support Project Task of China(2006BAE02B02)
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Xiao, Zp., Ma, Hf., Ying, Wy. et al. Study on flow mode of combined converter for methanol synthesis from coal-based syngas. J Coal Sci Eng China 17, 88–92 (2011). https://doi.org/10.1007/s12404-011-0116-2
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DOI: https://doi.org/10.1007/s12404-011-0116-2