文献类型：期刊文献

英文题名：Reaction Mechanism of Methane-Flue Gas Thermochemical Reforming

作者：Hongjie, ZENG[1,2]; Wencai, ZHOU[1,2]; Min, GUAN[1]; Zhongjie, SHEN[3]; Guinan, HE[3]; Shuyong, CHEN[2]; Jiarui, CHEN[2]; Hongqiang, LI[1,2]; Wei, WANG[1,2]; Zefang, ZUO[1]

机构：[1] Hiina Triumph International Engineering, Ltd., Shanghai, 200063, China; [2] National Innovation Center for Advanced Glass Materials, Bengbu, 233000, China; [3] School of Resource and Environmental Engineering, East China University of Science and Technology, Shanghai, 200237, China

年份：2026

卷号：45

期号：2

起止页码：646

外文期刊名：Bulletin of the Chinese Ceramic Society

收录：EI(收录号：20261820625657)

语种：英文

外文关键词：Atmospheric pressure - Carbon black - Cracks - Flues - Hydrogen - Methane - Steam reforming

摘要：Studying the mechanism of methane-flue gas thermochemical reforming reaction is crucial for a deeper understanding of the interactions between methane-flue gas reforming reactants, optimizing methane-flue gas reforming reaction conditions and parameters, and improving the reaction yield and purity of methane-flue gas reforming reaction products. Experimental studies were conducted on dry reforming of methane and steam methane reforming reactions under different experimental conditions using an atmospheric pressure tube furnace. The effects of different experimental parameters on the reaction processes, reaction activity, and selectivity of dry reforming of methane and steam methane reforming reactions were analyzed. The results indicate that the methane-flue gas reforming reaction process is accompanied by the occurrence of methane cracking reaction. At temperatures below 1 100 °C, methane cracking tends to generate carbon black and hydrogen gas. At temperatures above 1 100 °C, methane cracking tends to generate acetylene [C2H2] and hydrogen gas. Under the same reaction conditions, the activity of steam methane reforming reaction is greater than that of dry reforming of methane. The increase in reforming reaction temperature is beneficial for the progress of methane-flue gas reforming reaction. ? (2026), (Bulletin of the Chinese Ceramic Society Press). All right reserved.