Cost-combined life cycle assessment of ferronickel production

被引:26
|
作者
Ma, Xiaotian [1 ]
Yang, Donglu [1 ]
Zhai, Yijie [1 ]
Shen, Xiaoxu [1 ]
Zhang, Ruirui [1 ]
Hong, Jinglan [1 ]
机构
[1] Shandong Univ, Sch Environm Sci & Engn, Shandong Prov Key Lab Water Pollut Control & Reso, Qingdao 266237, Peoples R China
来源
基金
中国国家自然科学基金;
关键词
Electricity; Ferronickel; Lateritic ores; Life cycle costing; Life cycle impact assessment; GREENHOUSE-GAS EMISSIONS; NICKELIFEROUS LATERITE; ELECTRICITY-GENERATION; ENVIRONMENTAL IMPACTS; NATURAL-GAS; NICKEL; ENERGY; WASTE; REDUCTION; LEVEL;
D O I
10.1007/s11367-019-01600-2
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Purpose Ferronickel is irreplaceable in modern infrastructure construction because of its use in stainless steel production. This study explored the cost-combined environmental impacts of ferronickel production in China which is the largest producer and consumer of ferronickel in the world. Methods Life cycle impact assessment was combined with life cycle costing analysis to assess the environmental and economic performance of ferronickel production in China. Both internal cost (e.g., raw materials, energy, transport, infrastructure, tax, and labor) and external cost (i.e., human health, ecosystem quality, and environmental emission) were considered. Results and discussion The environmental burden of ferronickel production in this study was mainly attributed to the damage on resources and human health as endpoints caused by indirect processes, such as electricity supply, transportation, coke production, lateritic nickel ore acquisition, and coal mining. Carbon dioxide, mercury, particulates, methane, sulfur dioxide, nitrogen oxides, coal, and nickel ores were the substances pivotal for optimizing environmental performance. The total economic cost was 2734.8 $/t, of which 2333.3 $/t was internal cost and 401.5 $/t was external cost. Lateritic nickel ore, electricity, human health cost, and transport contributed 44.9%, 20.6%, 14.2%, and 4.8% to the total economic cost, respectively. The remaining economic burden was mainly divided to coke, coal, argon, labor, equipment, and tax. Conclusions Awin-win case for the environment and economy can be achieved by optimizing electricity and lateritic nickel ore quality, including its transport. Application of other power types (e.g., hydro, wind, and solar electricity) as a substitute for thermal power can also reduce environmental impacts considerably. Sites with high steel yield, low thermal power ratio, and high port proximity, such as Fujian Province, are the primary choices for ferronickel production. Finally, although the economic benefits of coke and coal are minimal, their efficiency in environmental improvement is crucial.
引用
收藏
页码:1840 / 1850
页数:11
相关论文
共 50 条
  • [41] LIFE CYCLE ASSESSMENT OF THE STRAW MUSHROOM PRODUCTION
    Usubharatana, P.
    Phungrassami, H.
    APPLIED ECOLOGY AND ENVIRONMENTAL RESEARCH, 2016, 14 (01): : 189 - 200
  • [42] Life cycle assessment of Milk production in India
    Rakesh Saxena
    The International Journal of Life Cycle Assessment, 2002, 7 (3) : 189 - 190
  • [43] Life cycle assessment of soybean oil production
    Li, Yong
    Griffing, Evan
    Higgins, Matthew
    Overcash, Michael
    JOURNAL OF FOOD PROCESS ENGINEERING, 2006, 29 (04) : 429 - 445
  • [44] Life Cycle Assessment of multiyear peach production
    Vinyes, Elisabet
    Gasol, Caries M.
    Asin, Luis
    Alegre, Simo
    Munoz, Pere
    JOURNAL OF CLEANER PRODUCTION, 2015, 104 : 68 - 79
  • [45] Life cycle assessment of bacterial cellulose production
    Ana Forte
    Fernando Dourado
    André Mota
    Belmira Neto
    Miguel Gama
    Eugénio Campos Ferreira
    The International Journal of Life Cycle Assessment, 2021, 26 : 864 - 878
  • [46] Life Cycle Assessment of Primary Aluminum Production
    Lian, Xuan
    Gao, Hanchen
    Shen, Leiting
    Yu, Yilan
    Wang, Yilin
    Peng, Zhihong
    PROCESSES, 2025, 13 (02)
  • [47] Life cycle assessment of β-Galactosidase enzyme production
    Feijoo, S.
    Gonzalez-Garcia, S.
    Lema, J. M.
    Moreira, M. T.
    JOURNAL OF CLEANER PRODUCTION, 2017, 165 : 204 - 212
  • [48] Life cycle assessment of carnation production in Greece
    Abeliotis, Konstadinos
    Bar, Sofia-Anna
    Detsis, Vassilis
    Malindretos, George
    JOURNAL OF CLEANER PRODUCTION, 2016, 112 : 32 - 38
  • [49] Life cycle assessment of beer production in china
    Jilin University, Changchun 130025, China
    Nongye Jixie Xuebao, 2006, 2 (80-83+90):
  • [50] Life cycle assessment of aquaculture production in Greece
    Kallitsis, Evangelos
    Avramidis, Pavlos
    CLEANER ENVIRONMENTAL SYSTEMS, 2025, 16