文献类型：期刊文献

中文题名：全氧燃烧玻璃窑炉热化学再生技术实验研究

英文题名：Experimental Investigation of Thermochemical Regeneration Technology for Oxy-Fuel Combustion Glass Furnace

作者：曾红杰[1,2];周文彩[1,2,3];官敏[1,2];沈中杰[4];陈淑勇[1];李红强[1,2];齐帅[1,2];左泽方[2]

机构：[1]国家玻璃新材料创新中心,蚌埠233000;[2]中国建材国际工程集团有限公司,上海200063;[3]上海凯盛节能工程技术有限公司,上海200063;[4]华东理工大学资源与环境工程学院,上海200237

年份：2023

卷号：42

期号：12

起止页码：4509

中文期刊名：硅酸盐通报

外文期刊名：Bulletin of the Chinese Ceramic Society

收录：CSTPCD;;Scopus;北大核心:【北大核心2020】；

基金：安徽省重大产业创新计划(AHZDCYCX-LSDT2023-02);国家玻璃新材料创新中心自立课题(K22008)。

语种：中文

中文关键词：热化学再生技术;全氧燃烧玻璃窑炉;甲烷-烟气重整;反应温度;反应时间;节能减排

外文关键词：thermochemical regeneration technology;oxy-fuel combustion glass furnace;methane/flue gas reforming;reaction temperature;reaction time;energy saving and emission reduction

摘要：玻璃窑炉热化学再生技术相较于传统全氧燃烧技术和空气燃烧技术,节能效果显著,是未来高耗能玻璃工业绿色低碳发展的前沿、颠覆性技术。采用常压管式炉对玻璃窑炉热化学再生技术进行了实验研究,分析了不同实验条件对甲烷-烟气热化学重整反应性能的影响。结果表明,甲烷-烟气在高温、无催化剂条件下可以自发进行热化学重整。当重整反应温度低于900℃时,甲烷-烟气不发生热化学重整反应,1200℃的反应温度和10 s以上的反应时间能够保证重整反应充分进行。重整反应气中甲烷、二氧化碳含量的升高分别有利于合成气中氢气和一氧化碳产率的增加。
Compared with traditional oxy-fuel combustion technology and air combustion technology,the thermochemical regeneration technology of glass furnace has remarkable energy saving effect and is a cutting-edge and disruptive technology for green and low-carbon development of the future high energy consuming glass industry.The thermochemical regeneration technology of glass furnace was experimentally studied by using atmospheric tube furnace and the effects of different experimental conditions on the thermochemical reforming reaction performance of methane/flue gas were analyzed.The results show that methane/flue gas can spontaneously undergo thermochemical reforming at high temperature without catalyst.When the reforming reaction temperature is lower than 900℃,the thermochemical reforming reaction of methane/flue gas does not occur.A reaction temperature of 1200℃and a reaction time of more than 10 s can ensure the full progress of the reforming reaction.The increase of methane and CO_(2)content in the reforming reaction gas is conducive to the increase of hydrogen and carbon monoxide yields in the synthesis gas,respectively.