Achieving Carbon Neutrality in the Global Aluminum Industry

被引:0
|
作者
Subodh Das
机构
[1] Phinix,
[2] LLC,undefined
来源
JOM | 2012年 / 64卷
关键词
Carbon Footprint; Aluminum Industry; Anode Effect; Carbon Neutrality; Carbon Dioxide Equivalent;
D O I
暂无
中图分类号
学科分类号
摘要
In the 21st century, sustainability is widely regarded as the new corporate culture, and leading manufacturing companies (Toyota, GE, and Alcoa) and service companies (Google and Federal Express) are striving towards carbon neutrality. The current carbon footprint of the global aluminum industry is estimated at 500 million metric tonnes carbon dioxide equivalent (CO2eq), representing about 1.7% of global emissions from all sources. For the global aluminum industry, carbon neutrality is defined as a state where the total “in-use” CO2eq saved from all products in current use, including incremental process efficiency improvements, recycling, and urban mining activities, equals the CO2eq expended to produce the global output of aluminum. This paper outlines an integrated and quantifiable plan for achieving “carbon neutrality” in the global aluminum industry by advocating five actionable steps: (1) increase use of “green” electrical energy grid by 8%, (2) reduce process energy needs by 16%, (3) deploy 35% of products in “in-use” energy saving applications, (4) divert 6.1 million metric tonnes/year from landfills, and (5) mine 4.5 million metric tonnes/year from aluminum-rich “urban mines.” Since it takes 20 times more energy to make aluminum from bauxite ore than to recycle it from scrap, the global aluminum industry could set a reasonable, self-imposed energy/carbon neutrality goal to incrementally increase the supply of recycled aluminum by at least 1.05 metric tonnes for every tonne of incremental production via primary aluminum smelter capacity. Furthermore, the aluminum industry can and should take a global leadership position by actively developing internationally accepted and approved carbon footprint credit protocols.
引用
收藏
页码:285 / 290
页数:5
相关论文
共 50 条
  • [43] Strategies for Achieving Carbon Neutrality: Dual-Atom Catalysts in Focus
    Liu, Yuting
    Qing, Yurui
    Jiang, Wenhai
    Zhou, Lili
    Chen, Cheng
    Shen, Liguo
    Li, Bisheng
    Zhou, Mingzhu
    Lin, Hongjun
    SMALL, 2025, 21 (02)
  • [44] Evaluating the potential of achieving carbon neutrality at the neighborhood scale in urban areas
    Ye, Haipeng
    Li, Yu
    Shi, Donghui
    Meng, Dan
    Zhang, Ninghui
    Zhao, Hongrui
    SUSTAINABLE CITIES AND SOCIETY, 2023, 97
  • [45] Equation for zero emissions -achieving carbon-neutrality in building sector
    Ruuska, Antti
    Makinen, Markus
    SBE 19 - EMERGING CONCEPTS FOR SUSTAINABLE BUILT ENVIRONMENT, 2019, 297
  • [46] Pathways to Net-Zero-Innovations and Challenges in Achieving Carbon Neutrality
    Pan, Shu-Yuan
    ENVIRONMENTS, 2024, 11 (11)
  • [47] South Korea’s Strategic Plan for Achieving Carbon Neutrality by 2050
    Moon, Juhyuk
    Song, Hun
    Bae, Sungchul
    Kim, Euicheol
    Lim, Chaeyong
    Nam, Jeongsoo
    Kim, Jinman
    Concrete International, 2023, 45 (04) : 51 - 56
  • [48] Paths to carbon neutrality in china's chemical industry
    Li, Yan
    Mei, Yueru
    Zhang, Tao
    Xie, Yuanbo
    FRONTIERS IN ENVIRONMENTAL SCIENCE, 2022, 10
  • [49] THE IMPACT OF CARBON NEUTRALITY ON HUMAN RESOURCES IN THE METALLURGY INDUSTRY
    Hruba, Dominika
    Samolejova, Andrea
    29TH INTERNATIONAL CONFERENCE ON METALLURGY AND MATERIALS (METAL 2020), 2020, : 1220 - 1225
  • [50] Green Electrification of the Chemical Industry Toward Carbon Neutrality
    Tang, Cheng
    Zhang, Qiang
    ENGINEERING, 2023, 29 : 22 - 26