Assessment of midterm CO2 emissions reduction potential in the iron and steel industry: a case of Japan

被引:78
|
作者
Kuramochi, Takeshi [1 ]
机构
[1] Inst Global Environm Strategies, Climate & Energy Area, 2108-11 Kamiyamaguchi, Hayama, Kanagawa 2400115, Japan
关键词
Japan; Iron and steel industry; CO2 emissions reduction; Steel scrap; Techno-economic analysis; Metal recycling; ENERGY EFFICIENCY IMPROVEMENT; BLAST-FURNACE; TECHNOLOGIES; IRONMAKING; CEMENT; COAL; PART;
D O I
10.1016/j.jclepro.2015.02.055
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
An up-to-date techno-economic assessment was conductedon CO2 emissions reduction potential in the Japanese iron and steel industry for 2030. The following mitigation measures were investigated: (i) maximized installation of best available technologies (BAT scenario), (ii) increased use of coke substitutes in blast furnaces, and (iii) increased use of obsolete steel scrap. For measure (iii), this study assessed the obsolete scrap use in the integrated steelmaking (BF-BOF) route, rather than increasing steel production from the electric arc furnace (EAF) route. CO2 capture and storage (CCS) was not considered due to large deployment uncertainty. The results showed that 20 Mt-CO2 of emissions reductions, equivalent to 12% of the industry's total emissions in 2010, can be achieved in 2030 compared with a frozen technology scenario. More than 9 Mt-CO2 reduction was attributable to the enhanced use of obsolete scrap in the BF-BOF route. Consequently, the industry's emissions reduce by about 7 Mt-CO2 or 4% below 2010 levels. Almost all domestically recovered obsolete scrap can be fully consumed solely by increasing the scrap use in basic oxygen furnaces (BOF). Moreover, the increase in average copper concentration in the BF-BOF steel due to the increased obsolete scrap use was found unlikely to limit the production of high-quality steel products. In comparison with a scenario that only considered measure (i) and assuming a 15% real interest rate, CO2 mitigation cost curves for 2030 showed that the CO2 mitigation costs were below US$(2010) 20/t-CO2 for measure (ii) and around USSzoro 110/t-CO2 for measure (iii). Compared to the marginal abatement costs calculated for 2030 to reduce Japan's GHG emissions by 20%-25% from 1990 levels (about US$(2010) 67-640/t-CO2) reported in the literature, all three measures may become economically viable. The increased use of obsolete scrap in the BF-BOF route can become an interesting option for Japanese steelmakers to stimulate the steel scrap market and achieve economical global CO2 emissions reductions while maintaining international competitiveness in the midterm future. (C) 2015 Elsevier Ltd. All rights reserved.
引用
收藏
页码:81 / 97
页数:17
相关论文
共 50 条
  • [31] Assessment of the carbon emissions reduction potential of China's iron and steel industry based on a simulation analysis
    Li, Zhaoling
    Dai, Hancheng
    Song, Junnian
    Sun, Lu
    Geng, Yong
    Lu, Keyu
    Hanaoka, Tatsuya
    [J]. ENERGY, 2019, 183 : 279 - 290
  • [32] A comparison study of EU and Japan methods to assess CO2 emission reduction and energy saving in the iron and steel industry
    Tanaka, Kanako
    [J]. ENERGY POLICY, 2012, 51 : 578 - 585
  • [33] Steel experts discuss the reduction of the CO2 emissions
    不详
    [J]. STAHL UND EISEN, 2009, 129 (09): : 6 - 6
  • [34] Potential energy savings and CO2 emissions reduction of China's cement industry
    Ke, Jing
    Zheng, Nina
    Fridley, David
    Price, Lynn
    Zhou, Nan
    [J]. ENERGY POLICY, 2012, 45 : 739 - 751
  • [35] Decomposing the decoupling of CO2 emissions and economic growth in China's iron and steel industry
    Wang, Xiaoling
    Wei, Yawen
    Shao, Qinglong
    [J]. RESOURCES CONSERVATION AND RECYCLING, 2020, 152 (152)
  • [36] Regional differences in the CO2 emissions of China's iron and steel industry: Regional heterogeneity
    Xu, Bin
    Lin, Boqiang
    [J]. ENERGY POLICY, 2016, 88 : 422 - 434
  • [37] CO2 emission reduction pathways of iron and steel industry in Shandong based on CO2 emission equity and efficiency
    Lan, Bingying
    Dong, Ke
    Li, Li
    Lei, Yalin
    Wu, Sanmang
    Hua, Ershi
    Sun, Ruyi
    [J]. RESOURCES POLICY, 2023, 81
  • [38] Assessment of multi-air emissions: Case of particulate matter (dust), SO2, NOx and CO2 from iron and steel industry of China
    Sun, Wenqiang
    Zhou, Yue
    Lv, Jingxiang
    Wu, Jianzhong
    [J]. JOURNAL OF CLEANER PRODUCTION, 2019, 232 : 350 - 358
  • [39] Greenhouse-gas (CO2) emissions in the steel industry
    Lisienko V.G.
    Lapteva A.V.
    Chesnokov Y.N.
    Lugovkin V.V.
    [J]. Steel in Translation, 2015, 45 (9) : 623 - 626
  • [40] Reducing CO2 emissions in the iron industry with green hydrogen
    Patnaik, Dulu
    Pattanaik, Ajit Kumar
    Bagal, Dilip Kumar
    Rath, Arati
    [J]. INTERNATIONAL JOURNAL OF HYDROGEN ENERGY, 2023, 48 (61) : 23449 - 23458