A novelty data mining approach for multi-influence factors on billet gas consumption in reheating furnace

被引:9
作者
Lu, Biao [1 ]
Zhao, Yibo [1 ]
Chen, Demin [1 ]
Li, Jiaqi [1 ]
Tang, Kai [1 ]
机构
[1] Anhui Univ Technol, Sch Civil Engn & Architect, Maanshan, Peoples R China
基金
中国国家自然科学基金;
关键词
Iron and steel industry; Reheating furnace; Billet gas consumption; Multi-influence factors; Data mining; WASTE HEAT-RECOVERY; ENERGY APPORTIONMENT MODEL; CHINA IRON; STEEL-INDUSTRY; CO2; EMISSIONS; AIR-FUEL; EFFICIENCY; CONSERVATION; SAVINGS; OPTIMIZATION;
D O I
10.1016/j.csite.2021.101080
中图分类号
O414.1 [热力学];
学科分类号
摘要
To systematically and quantitatively analyze the influence factors on billet gas consumption (BGC) in reheating furnace, a novelty data mining approach for multi-influence factors BGC analysis was proposed in this paper. This multi-influence factors data mining model mainly includes four steps: Firstly, the BGC apportionment model was established based on energy apportionment model in reheating furnace; Secondly, the BGC data set could be achieved according to the division of billet sample space (BSS); Thirdly, the data interpolation calculation method of various BSS subsets (BSSSs) was put forward; Lastly, the influence degree analysis method of various factors on BGC was described in detail. Especially, contribution degree model, which could quantitatively describe the influence degree of each factor on BGC, was established. Case study showed that working groups (WGs) should be eliminated because of weak influence on BGC. Then the order of contribution degree on BGC from weak to strong was working shifts (WSs) (1.61%), residence time (9.7%), loading temperature (88.68%). Therefore, residence time and loading temperature should be highlighted in all factors. Finally, some measures and suggestions, which could improve the residence time and loading temperature, were put forward.
引用
收藏
页数:17
相关论文
共 50 条
[1]   Potential of energy savings and CO2 emission reduction in China's iron and steel industry [J].
An, Runying ;
Yu, Biying ;
Li, Ru ;
Wei, Yi-Ming .
APPLIED ENERGY, 2018, 226 :862-880
[2]   Energy intensity development of the German iron and steel industry between 1991 and 2007 [J].
Arens, Marlene ;
Worrell, Ernst ;
Schleich, Joachim .
ENERGY, 2012, 45 (01) :786-797
[3]   The case study of furnace use and energy conservation in iron and steel industry [J].
Chan, David Yih-Liang ;
Yang, Kuang-Han ;
Lee, Jenq-Daw ;
Hong, Gui-Bing .
ENERGY, 2010, 35 (04) :1665-1670
[4]   Fuel gas operation management practices for reheating furnace in iron and steel industry [J].
Chen, D. M. ;
Liu, Y. H. ;
He, Y. H. ;
Xu, S. ;
Dai, F. Q. ;
Lu, B. .
ADVANCES IN PRODUCTION ENGINEERING & MANAGEMENT, 2020, 15 (02) :179-191
[5]   Bottleneck of slab thermal efficiency in reheating furnace based on energy apportionment model [J].
Chen, Demin ;
Lu, Biao ;
Dai, FangQin ;
Chen, Guang ;
Zhang, Xihe .
ENERGY, 2018, 150 :1058-1069
[6]  
Chen G., 2008, Energy Metall. Ind, V27, P32
[7]   Assessment of low-carbon iron and steel production with CO2 recycling and utilization technologies: A case study in China [J].
Chen, Qianqian ;
Gu, Yu ;
Tang, Zhiyong ;
Wei, Wei ;
Sun, Yuhan .
APPLIED ENERGY, 2018, 220 :192-207
[8]  
Colclough T.P, 2005, HATFIELD MEMORIAL LE, P167
[9]   Improving energy recovery efficiency by retrofitting a PCM-based technology to an ORC system operating under thermal power fluctuations [J].
Dal Magro, Fabio ;
Jimenez-Arreola, Manuel ;
Romagnoli, Alessandro .
APPLIED ENERGY, 2017, 208 :972-985
[10]  
DOE, 2007, IMPR PROC HEAT SYST IMPR PROC HEAT SYST, Vsecond