Life cycle assessment of a multi-megawatt wind turbine

被引:230
|
作者
Martinez, E. [1 ]
Sanz, F. [2 ]
Pellegrini, S. [1 ]
Jimenez, E. [3 ]
Blanco, J. [2 ]
机构
[1] Grp Eolicas Riojanas, R&D Div, Carretera Laguardia 91-93, Logrono 26006, La Rioja, Spain
[2] Univ La Rioja, Dept Mech Engn, Logrono, La Rioja, Spain
[3] Univ La Rioja, Dept Elect Engn, Logrono, La Rioja, Spain
关键词
Wind turbine; LCA; Eco-Indicators; 99; Wind power; ENERGY; CEMENT; INVENTORIES; TECHNOLOGIES; EMISSIONS; SYSTEM; IMPACT; LCA;
D O I
10.1016/j.renene.2008.05.020
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
At the present moment in time, renewable energy sources have achieved great significance for modern day society. The main reason for this boom is the need to use alternative sources of energy to fossil fuels which are free of CO2 emissions and contamination. Among the current renewable energy sources, the growth of wind farms has been spectacular. Wind power uses the kinetic energy of the wind to produce a clean form of energy without producing contamination or emissions. The problem it raises is that of quantifying to what extent it is a totally clean form of energy. In this sense we have to consider not only the emissions produced while they are in operation, but also the contamination and environmental impact resulting from their manufacture and the future dismantling of the turbines when they come to the end of their working life. The aim of this study is to analyse the real impact that this technology has if we consider the whole life cycle. The application of the ISO 14040 standard [ISO. ISO 14040. Environmental management - life cycle assessment - principles and framework. Geneva, Switzerland: International Standard Organization; 1998.] allows us to make an LCA study quantifying the overall impact of a wind turbine and each of its components. Applying this methodology, the wind turbine is analysed during all the phases of its life cycle, from cradle to grave, with regard to the manufacture of its key components (through the incorporation of cut-off criteria), transport to the wind farm, subsequent installation, start-up, maintenance and final dismantling and stripping down into waste materials and their treatment. (C) 2008 Elsevier Ltd. All rights reserved.
引用
收藏
页码:667 / 673
页数:7
相关论文
共 50 条
  • [31] DYNAMIC RESPONSE OF A MULTI-MEGAWATT WIND TURBINE DRIVETRAIN UNDER VOLTAGE DIPS USING A COUPLED FLEXIBLE MULTIBODY APPROACH
    Blockmans, Bart
    Helsen, Jan
    Vanhollebeke, Frederik
    Desmet, Wim
    PROCEEDINGS OF THE ASME INTERNATIONAL DESIGN ENGINEERING TECHNICAL CONFERENCES AND COMPUTERS AND INFORMATION IN ENGINEERING CONFERENCE, 2013, VOL 5, 2014,
  • [32] Multi-Megawatt Drive with Intercell Transformers
    Dawande, Shrutish
    Lentijo, Kathleen
    2013 IEEE ELECTRIC SHIP TECHNOLOGIES SYMPOSIUM (ESTS), 2013, : 216 - 219
  • [33] MULTI-MEGAWATT GYROTRON DESIGN STUDY
    GUSS, WC
    BASTEN, MA
    BLANK, M
    GRIMM, TL
    KREISCHER, KE
    TEMKIN, RJ
    FUSION TECHNOLOGY, 1992, 21 (03): : 1654 - 1657
  • [34] Mechanical design and numerical simulation of digital-displacement radial piston pump for multi-megawatt wind turbine drivetrain
    Tao, Jing
    Wang, Huaiyu
    Liao, Haohan
    Yu, Suiran
    RENEWABLE ENERGY, 2019, 143 : 995 - 1009
  • [35] Reference Design and Simulation Framework of a Multi-Megawatt Airborne Wind Energy System
    Eijkelhof, Dylan
    Rapp, Sebastian
    Fasel, Urban
    Mac Gaunaa
    Schmehl, Roland
    SCIENCE OF MAKING TORQUE FROM WIND (TORQUE 2020), PTS 1-5, 2020, 1618
  • [36] Megawatt Wind Turbine
    Kreiser, Christine M.
    AMERICAN HISTORY, 2014, 48 (06) : 15 - 15
  • [37] Impact of climate change on the design of multi-megawatt spar floating wind turbines
    James, Maria
    Haldar, Sumanta
    Bhattacharya, Subhamoy
    MARINE STRUCTURES, 2024, 93
  • [38] Understanding rotor flux behaviour of a multi-megawatt DFIG in wind energy conversion
    Pimple B.B.
    Babu N.N.V.S.
    International Journal of Power Electronics, 2024, 19 (02) : 152 - 166
  • [39] OPEN-CYCLE MULTI-MEGAWATT MHD SPACE NUCLEAR POWER FACILITY
    Pavshuk, V. A.
    Panchenko, V. P.
    ATOMIC ENERGY, 2008, 105 (03) : 175 - 186
  • [40] Reliability assessment of multi-megawatt capacity offshore dynamic positioning systems
    Vedachalam, N.
    Ramadass, G. A.
    APPLIED OCEAN RESEARCH, 2017, 63 : 251 - 261