旁路放风与高硫煤的应用

doi:10.19698/j.cnki.1001-6171.20204065

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摘要某5 000t/d熟料生产线原、燃材料硫、氯元素含量高，需采用旁路放风系统降低硫、氯元素含量。通过采用经典的Weber法计算了旁路放风量，设置旁路放风量10%的放风系统，放风点设置在窑尾烟室斜坡部正前方。旁路放风量为10%时，热损失不大，排灰量为20g/kg，窑尾结皮减弱，熟料有害成分含量大幅降低，熟料性能改善，技术经济效益可观。

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	刘庆江
	高增毅
	方婉
	沈欣

关键词: 旁路放风氯元素放风量排灰量

Abstract: A 5 000t/d production line has a high content of sulfur and chlorine element , it needs to adopt by-pass system. The traditional Weber method is used to calculate the by-pass air volume, and a 10% by-pass system is set up, and the gas drawing point is set in front of the slope of the kiln inlet chamber. The heat loss of 10% ventilation is appropriate, the ash discharge is 20g/kg.cl, the crust at the end of kiln is weakened, the content of harmful components in clinker is greatly reduced, and the performance of clinker is improved.

Key words: bypass chlorine element bypass vent volume ash discharge

收稿日期: 2020-01-13 出版日期: 2020-07-25 发布日期: 2020-07-27 整期出版日期: 2020-07-25

ZTFLH:

TQ172.622.29

引用本文:

刘庆江, 高增毅, 方婉, 沈欣. 旁路放风与高硫煤的应用[J]. 水泥技术, 2020, 1(4): 65-70.
LIU Qingjiang, GAO Zengyi, FANG Wan, SHEN Xin. Bypass Ventilation and Application of High Sulfur Coal. Cement Technology, 2020, 1(4): 65-70.

链接本文:

http://www.cemteck.com/CN/10.19698/j.cnki.1001-6171.20204065 或 http://www.cemteck.com/CN/Y2020/V1/I4/65

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[2]	李小燕, 俞为民, 彭学平, 王秀龙, 朱金波. 新型干法水泥生产线高硫煤应用技术[J]. 水泥技术, 2014, 1(2): 26-29.
[3]	包文忠, 张磊, 张福滨. 水泥窑旁路放风技术及余热利用简介 [J]. 水泥技术, 2013, 1(6): 96-99.
[4]	李国强, 朱彦坤. 水泥窑旁路放风余热资源利用的探讨 [J]. 水泥技术, 2013, 1(3): 106-107.
[5]	李国强, 韩涛, 肖衍党, 杜俊昭. 水泥窑旁路放风技术的研究 [J]. 水泥技术, 2012, 1(6): 29-32.
[6]	王春梅, 杨立荣, 杨克锐, 张志勇. 旁路放风合并煤矸石脱水的工艺设想 [J]. 水泥技术, 2008, 1(4): 25-28.
[7]	张大康. 国外某水泥工厂的旁路放风装置[J]. 水泥技术, 2006, 1(4): 56-59.

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