Assessment of the electro-mechanical equipment’s weight of the European hydropower fleet

被引:0
|
作者
Emanuele Quaranta
机构
[1] European Commission,
[2] Joint Research Centre,undefined
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Hydropower structures are typically made of materials that are available in most parts of the world, such as steel, concrete, and—to a lesser extent—copper, and do not use critical materials. The weight of hydropower structures is an important input data, as it is used to perform Life Cycle Assessments and to estimate the cost and the economic value of materials, both during the design and in case of dismantling or retrofitting. The weight of material is of interest also for policy-making purposes and for strategic development planning, for example to estimate impacts on resources. In this study, available literature equations are, for the first time, applied at a regional scale (the European Union) to estimate the weight of the hydropower fleet’s electro-mechanical (steel-made) equipment. The total weight of the electro-mechanical equipment (runner, distributor, generator, draft tube and casing) amounts to 877 ktons. The average ratio of weight to installed power is R = 5.7 ton/MW and it is lower in mountainous countries (R = 4–6 in alpine areas, R = 30 in Denmark), where hydropower plants exploit high heads and low discharges.
引用
收藏
相关论文
共 49 条
  • [1] Assessment of the electro-mechanical equipment's weight of the European hydropower fleet
    Quaranta, Emanuele
    [J]. SCIENTIFIC REPORTS, 2023, 13 (01):
  • [2] How to estimate the weight of hydropower electro-mechanical equipment? Available evidence, novel equations and challenges for engineering applications
    Quaranta, Emanuele
    Bergamin, Riccardo
    Schleiss, Anton J.
    [J]. RESULTS IN ENGINEERING, 2023, 18
  • [3] Estimation of the cost of electro-mechanical equipment for small hydropower plants - review and comparison of methods
    Lipinski, Seweryn
    Olkowski, Tomasz
    [J]. INTERNATIONAL CONFERENCE ENERGY, ENVIRONMENT AND MATERIAL SYSTEMS (EEMS 2017), 2017, 19
  • [4] Electro-mechanical analysis of the European superconducting dipole
    Testoni, P.
    Cau, F.
    Portone, A.
    Di Mauro, M.
    Fanni, A.
    Salpietro, E.
    Sonato, P.
    [J]. FUSION ENGINEERING AND DESIGN, 2007, 82 (5-14) : 1423 - 1430
  • [5] Electro-Mechanical Assessment of Left Ventricle Rotation
    Jadczyk, Tomasz
    Kurzelowski, Radoslaw
    Golba, Krzysztof S.
    Wilczek, Jacek
    Biernat, Jolanta
    Cybulska, Magdalena
    Emmert, Maximilian Y.
    Kalanska, Barbara
    Parma, Zofia
    Dutka, Mieczyslaw
    Starek, Zdenek
    Wojakowski, Wojciech
    [J]. CIRCULATION, 2019, 140
  • [6] MAINTENANCE AIDS FOR ELECTRO-MECHANICAL TELEPHONE EXCHANGE EQUIPMENT.
    Salvatore, M.
    Valletrisco, A.
    [J]. AIAA Paper, 1980, : 589 - 593
  • [7] Automatic test equipment for avionics Electro-Mechanical Actuators (EMAs)
    Antonelli, Michele Gabrio
    Bucci, Giovanni
    Ciancetta, Fabrizio
    Fiorucci, Edoardo
    [J]. MEASUREMENT, 2014, 57 : 71 - 84
  • [8] Electro-mechanical actuators for the Navy's ships
    Tesar, D
    [J]. 2005 IEEE Electric Ship Technologies Symposium, 2005, : 387 - 392
  • [9] SHARED CONTROL METHOD FOR COMBINATION STATE CONVERSION OF ELECTRO-MECHANICAL EQUIPMENT
    Wang Qiyi
    Yan Xiren(Northeastern University)
    [J]. Chinese Journal of Mechanical Engineering, 1995, (04) : 304 - 308
  • [10] ELECTRO-MECHANICAL EQUIPMENT FOR THE KALAYAAN PUMPED-STORAGE PLANT.
    di Gioia, F.
    [J]. International Water Power and Dam Construction, 1986, 38 (02): : 33 - 36