Metal requirements of low-carbon power generation

被引:169
作者
Kleijn, Rene [1 ]
van der Voet, Ester [1 ]
Kramer, Gert Jan [1 ,2 ]
van Oers, Lauran [1 ]
van der Giesen, Coen [1 ]
机构
[1] Leiden Univ, Inst Environm Sci CML, NL-2333 CC Leiden, Netherlands
[2] Shell Global Solut Int BV, NL-1030 BN Amsterdam, Netherlands
关键词
Material requirements; Electricity; Metals; LCA; RESOURCES; ENERGY; BOOM;
D O I
10.1016/j.energy.2011.07.003
中图分类号
O414.1 [热力学];
学科分类号
摘要
Today, almost 70% of the electricity is produced from fossil fuels and power generation accounts for over 40% of global CO2 emissions. If the targets to reduce climate change are to be met, substantial reductions in emissions are necessary. Compared to other sectors emission reductions in the power sector are relatively easy to achieve because it consists mainly of point-sources. Carbon Capture and Storage (CCS) and the use of low-carbon alternative energy sources are the two categories of options to reduce CO2 emissions. However, for both options additional infrastructure and equipment is needed. This article compares CO2 emissions and metal requirements of different low-carbon power generation technologies on the basis of Life Cycle Assessment. We analyze the most critical output (CO2) and the most critical input (metals) in the same methodological framework. CO2 emissions and metal requirements are compared with annual global emissions and annual production for different metals. It was found that all technologies are very effective in reducing CO2 emissions. However. CCS and especially non-fossil technologies are substantially more metal intensive than existing power generation. A transition to a low-carbon based power generation would require a substantial upscaling of current mining of several metals. (C) 2011 Elsevier Ltd. All rights reserved.
引用
收藏
页码:5640 / 5648
页数:9
相关论文
共 50 条
  • [21] Simulating the impact of investment preference on low-carbon transition in power sector
    Chen, Huadong
    Wang, Can
    Cai, Wenjia
    Wang, Jianhui
    APPLIED ENERGY, 2018, 217 : 440 - 455
  • [22] Efficient and low-carbon heat and power cogeneration with photovoltaics and thermochemical storage
    Li, Wenjia
    Hao, Yong
    Wang, Hongsheng
    Liu, Hao
    Sui, Jun
    APPLIED ENERGY, 2017, 206 : 1523 - 1531
  • [23] Uncertainty representation in investment planning of low-carbon power systems br
    Moya, Bastian
    Moreno, Rodrigo
    Pueschel-Lovengreen, Sebastian
    Costa, Alysson M.
    Mancarella, Pierluigi
    ELECTRIC POWER SYSTEMS RESEARCH, 2022, 212
  • [24] Sector coupling leading to low-carbon production of power and chemicals in China
    Li, Yinan
    Li, Lanyu
    Zhang, Chuan
    Zhao, Yingru
    Wang, Xiaonan
    SUSTAINABLE ENERGY & FUELS, 2023, 7 (09): : 2130 - 2145
  • [25] Feasibility assessment of Low-Carbon methanol production through 4E analysis of combined cycle power generation and carbon capture Integration
    Fard, Ali Alian
    Hosseinifard, Farzin
    Salimi, Mohsen
    Amidpour, Majid
    THERMAL SCIENCE AND ENGINEERING PROGRESS, 2024, 56
  • [26] Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100
    Boubault, Antoine
    Maizi, Nadia
    RESOURCES-BASEL, 2019, 8 (01):
  • [27] Disruptive low-carbon innovations
    Wilson, Charlie
    ENERGY RESEARCH & SOCIAL SCIENCE, 2018, 37 : 216 - 223
  • [28] Economics of a low-carbon future
    Hanley, Nick
    Brennan, Dervla
    EARTH AND ENVIRONMENTAL SCIENCE TRANSACTIONS OF THE ROYAL SOCIETY OF EDINBURGH, 2012, 103 (02) : 149 - 156
  • [29] Low-carbon development in power systems based on carbon emission analysis models: A comprehensive review
    Ding, Ning
    Guo, Pengtao
    Xi, YanHeng
    Zhang, Anan
    Lei, Xianzhang
    SUSTAINABLE ENERGY TECHNOLOGIES AND ASSESSMENTS, 2024, 65
  • [30] The Future of Low-Carbon Electricity
    Greenblatt, Jeffery B.
    Brown, Nicholas R.
    Slaybaugh, Rachel
    Wilks, Theresa
    Stewart, Emma
    McCoy, Sean T.
    ANNUAL REVIEW OF ENVIRONMENT AND RESOURCES, VOL 42, 2017, 42 : 289 - 316