Transport systems for ocean disposal of CO2 and their environmental effects

被引:23
|
作者
Golomb, D
机构
关键词
CO2; disposal; CO2 transport systems; pipes; tankers; CO2 environmental impact; CO2 health risk;
D O I
10.1016/S0196-8904(96)00282-8
中图分类号
O414.1 [热力学];
学科分类号
摘要
After removal from the power plant flue gas, the CO2 has to be transported from the power plant to the deep ocean. Because of the vast quantities that need to be transported, this is a formidable engineering task. The transport systems will add significantly to the cost of CO2 disposal, and they may pose an environmental and safety risk. Considering that a single 1000 MW bituminous coal-fired power plant equipped with CO2 removal system will deliver between 7.2-8.2E6 T/y of CO2 (228-260 kg/s), the only practical transport systems appear to be pipes and large tankers in which the CO2 is transported as a liquid. The environmental impact of offshore pipes will occur mainly during the construction phase. In USA territorial waters pipes need to be buried to a depth of 61 m. This means blasting and digging through sediments and reefs. After construction, the underwater habitat will be restored in a few years. Tanker transport requires major port and docking facilities, which could lead to perturbations of coastal habitat, and contamination due to leakages, spills and effluents. As CO2 is stored and transported as a pressurized liquid, there is a risk of rupture and release of large quantities of CO2. At concentrations in air above 10%, CO2 is an asphyxiant, and at smaller concentrations it causes nausea, vomiting, diarrhea and skin lesions. However the environmental impacts and safety hazards of CO2 transport systems can be minimized or altogether prevented with prudent management and exercise of precaution. (C) 1997 Elsevier Science Ltd.
引用
收藏
页码:S279 / S286
页数:8
相关论文
共 50 条
  • [31] The influence of CO2 leaking on environmental monitoring in the process of CO2 geological sealing
    Zhai, Xiaowei
    Ge, Hui
    Chen, Xiaokun
    Xu, Yu
    Fan, Guixian
    5TH INTERNATIONAL CONFERENCE ON ENERGY AND ENVIRONMENT RESEARCH (ICEER 2018), 2018, 153 : 207 - 214
  • [32] Interactive effects of elevated CO2 and temperature on water transport in ponderosa pine
    Maherali, H
    DeLucia, EH
    AMERICAN JOURNAL OF BOTANY, 2000, 87 (02) : 243 - 249
  • [33] Economic evaluation of CO2 ocean sequestration in Korea
    Park, Se-Hun
    Kwon, Suk-Jae
    Oh, Wee-Yeong
    PROCEEDINGS OF THE SEVENTH (2007) ISOPE OCEAN MINING (& GAS HYDRATES) SYMPOSIUM, 2007, : 15 - 20
  • [34] Monitoring and interpreting the ocean uptake of atmospheric CO2
    Watson, Andrew J.
    Metzl, Nicolas
    Schuster, Ute
    PHILOSOPHICAL TRANSACTIONS OF THE ROYAL SOCIETY A-MATHEMATICAL PHYSICAL AND ENGINEERING SCIENCES, 2011, 369 (1943): : 1997 - 2008
  • [35] A case for deep-ocean CO2 sequestration
    Sheps, K. M.
    Max, M. D.
    Osegovic, J. P.
    Tatro, S. R.
    Brazel, L. A.
    GREENHOUSE GAS CONTROL TECHNOLOGIES 9, 2009, 1 (01): : 4961 - 4968
  • [36] Storage of CO2 as hydrate beneath the ocean floor
    Qanbari, Farhad
    Pooladi-Darvish, Mehran
    Tabatabaie, S. Hamed
    Gerami, Shahab
    10TH INTERNATIONAL CONFERENCE ON GREENHOUSE GAS CONTROL TECHNOLOGIES, 2011, 4 : 3997 - 4004
  • [37] The environmental impact and risk assessment of CO2 capture, transport and storage - An evaluation of the knowledge base
    Koornneef, Joris
    Ramirez, Andrea
    Turkenburg, Wim
    Faaij, Andre
    PROGRESS IN ENERGY AND COMBUSTION SCIENCE, 2012, 38 (01) : 62 - 86
  • [38] Effects of geochemistry and interphase transport of CO2 on hybrid carbonated low salinity waterflood to improve oil recovery and CO2 sequestration
    Lee, Ji Ho
    Jeong, Moon Sik
    Lee, Kun Sang
    GREENHOUSE GASES-SCIENCE AND TECHNOLOGY, 2019, 9 (04) : 770 - 788
  • [40] A novel CO2 absorbent and it's CO2 capturing application systems
    Kogo, R
    Hagiwara, Y
    SICE 2004 ANNUAL CONFERENCE, VOLS 1-3, 2004, : 1048 - 1051