Energy-saving and emission-reduction technology selection and CO2 emission reduction potential of China's iron and steel industry under energy substitution policy

被引:121
|
作者
Tan, Xianchun [1 ,2 ]
Li, Hui [1 ,2 ]
Guo, Jianxin [1 ,2 ]
Gu, Baihe [1 ,2 ]
Zeng, Yuan [1 ,2 ]
机构
[1] Chinese Acad Sci, Inst Sci & Dev, Beijing 100190, Peoples R China
[2] Univ Chinese Acad Sci, Beijing 100190, Peoples R China
基金
中国国家自然科学基金;
关键词
Steel industry; Coal to electricity; Coal to gas; Development paths of technologies; Energy substitution; PACIFIC INTEGRATED MODEL; CONSERVATION; OUTLOOK;
D O I
10.1016/j.jclepro.2019.03.133
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
The carbonisation of energy structures is a principal reason for the high carbon levels of carbon dioxide (CO2) emissions in the steel industry. The implementation of an energy substitution policy in the Chinese steel industry has important practical significance for this industry in terms of reducing CO2 emissions. Based on this, this paper divides 20 types of energy-saving and emission-reduction (ESER) technologies into 4 categories: coal-saving technology, electricity-saving technology, comprehensive energy-saving technology, and linkage technology according to the energy-saving effect of different technology on energy varieties. Considering the energy substitution constraints on energy structures within the steel industry, we construct a bottom-up optimisation model based on a scenario analysis to analyse the emission reductions under 3 different scenarios: the baseline scenario (BAU), policy scenario (PS), and strengthened policy scenario (SPS). Results show that the emission reduction of coal-saving technology and comprehensive energy-saving technology in 2030 is 102 million tons CO2 (MtCO(2)) and 129 MtCO(2), respectively, in the PS, and 116 MtCO(2) and 130 MtCO(2), respectively, in the SPS. Compared with these types of technology, electricity-saving technology is maintained at the level of the BAU. Linkage technology is developed in the latter period of the SPS. The emission reduction of linkage technology in the SPS in 2030 will be 4.1 MtCO(2). During the period of 2015-2020, priority should be given to the development of thin slab continuous casting technology in comprehensive energy-saving technology and the development of blast furnace thick phase high efficiency coal injection technology in coal-saving technology. During the period 2020-2030, priority should be given to the development of thick layer sintering technology, hot delivery & hot charging technology of continuous casting slab, online treatment technology in comprehensive energy-saving technology and low temperature rolling technology, converter 'negative energy steelmaking' technology, and double preheating technology for hot stove of blast furnace in coal-saving technology. (C) 2019 Elsevier Ltd. All rights reserved.
引用
收藏
页码:823 / 834
页数:12
相关论文
共 50 条
  • [1] Potential of energy savings and CO2 emission reduction in China's iron and steel industry
    An, Runying
    Yu, Biying
    Li, Ru
    Wei, Yi-Ming
    APPLIED ENERGY, 2018, 226 : 862 - 880
  • [2] Energy-Saving & Emission-Reduction and Green Economy in Chemical Fiber Industry
    Zhao Zihan
    China Textile, 2013, (12) : 18 - 21
  • [3] Green Fiscal Policy and ESG Performance: Evidence from the Energy-Saving and Emission-Reduction Policy in China
    Miao, Shan
    Tuo, Yandi
    Zhang, Xi
    Hou, Xiang
    ENERGIES, 2023, 16 (09)
  • [4] Decision of energy-saving and emission-reduction in textile industry based on supply chain
    Wang X.
    Zhu C.
    Yuan Y.
    Fangzhi Xuebao/Journal of Textile Research, 2019, 40 (01): : 166 - 174
  • [5] CO2 Emission Reduction Impacts of Promoting Energy-saving and New energy Vehicles in China
    Cao, Xin
    Wen, Zongguo
    2015 SEVENTH ANNUAL IEEE GREEN TECHNOLOGIES CONFERENCE (GREENTECH), 2015, : 110 - 116
  • [6] Potentials and strategies for energy-saving and CO2 emission reduction in the Chinese lime industry
    Shi Wei
    Cui Yuansheng
    ZKG INTERNATIONAL, 2009, 62 (6-7): : 72 - 77
  • [8] Impacts of energy-saving and emission-reduction on sustainability of cement production
    Xiang, Qing
    Pan, Hengyu
    Ma, Xiaohan
    Yang, Mingdong
    Lyu, Yanfeng
    Zhang, Xiaohong
    Shui, Wei
    Liao, Wenjie
    Xiao, Yinlong
    Wu, Jun
    Zhang, Yanzong
    Xu, Min
    RENEWABLE & SUSTAINABLE ENERGY REVIEWS, 2024, 191
  • [9] Energy-saving and emission-reduction combustion technologies for glass melting
    Backhausen, J.
    International Glass Journal, 96 (01):
  • [10] The effect of energy construction adjustment on the dynamical evolution of energy-saving and emission-reduction system in China
    Fang, Guochang
    Tian, Lixin
    Fu, Min
    Sun, Mei
    Du, Ruijin
    Lu, Longxi
    He, Yu
    APPLIED ENERGY, 2017, 196 : 180 - 189