Identificatlon of Contemporaneous Component Loading for Extrapolated Primary Loads in Wind Turbines

被引:3
|
作者
Natarajan, Anand [2 ]
Holley, William E. [1 ]
Penmatsa, Reveendra [3 ]
Brahmanapalli, Bhanu Chandar
机构
[1] GE Energy Engn Div, Greenville, SC 29615 USA
[2] Ascendas IT Pk, Caterpillar Engn Design Ctr, Taramani, Chennai, India
[3] GE India Technol Ctr, GE Energy, Wind Syst Engn, Bangalore, Karnataka, India
关键词
loads; dynamics; extremes; extrapolation;
D O I
10.1002/we.304
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
This paper describes the statistical identification of component loading occurring at the same instant as an extrapolated primary 50 year extreme load. As it is not feasible to simulate a full lifetime of fluctuating wind turbine loads to determine the largest extreme value, extrapolation to a 50 year or other desired long-term return period is performed based on limited simulation data. For specific wind turbine component design, it is required to identify other simultaneously applied loading corresponding to this long-term extrapolated load level. This identification is performed using statistical methods, since an appropriate loads simulation time series directly giving loads at the extrapolated load level is unavailable. The statistical behavior of each contemporaneous load in the simulation time series that was used to determine the extrapolated load is illustrated by the histogram. Since this histogram is in general skewed, the mean value of the corresponding data may not be an appropriate value for such contemporaneous loads. Instead, in this paper, a value corresponding to the mode of the estimated probability distribution function of the contemporaneous load is used. The robustness of ascertaining this most probable contemporaneous load is also investigated. The application of this process of identification of contemporaneous extreme loads is also applied to cases wherein the extrapolated load is a resultant load value, for which a suitable vector direction for the extreme resultant load is chosen. Copyright (C) 2008 John Wiley & Sons, Ltd.
引用
收藏
页码:577 / 587
页数:11
相关论文
共 50 条
  • [31] Active Power Control on wind turbines: impact on mechanical loads
    Ibanez, Bernabe
    Inthamoussou, Fernando A.
    De Battista, Hernan
    IEEE LATIN AMERICA TRANSACTIONS, 2023, 21 (09) : 984 - 990
  • [32] A multivariate approach to estimate design loads for offshore wind turbines
    Guanche, Yanira
    Guanche, Raul
    Camus, Paula
    Mendez, Fernando J.
    Medina, Raul
    WIND ENERGY, 2013, 16 (07) : 1091 - 1106
  • [33] BAYESIAN SPLINE METHOD FOR ASSESSING EXTREME LOADS ON WIND TURBINES
    Lee, Giwhyun
    Byon, Eunshin
    Ntaimo, Lewis
    Ding, Yu
    ANNALS OF APPLIED STATISTICS, 2013, 7 (04): : 2034 - 2061
  • [34] Nonlinear wave and currents loads analysis of offshore wind turbines
    Chen, Xiaobo
    Li, Jing
    Chen, JianYun
    KSCE JOURNAL OF CIVIL ENGINEERING, 2014, 18 (06) : 1877 - 1883
  • [35] EFFECTIVE OUTPUT AND AVAILABILITY OF WIND TURBINES FOR HOUSEHOLD LOADS.
    Feron, P.
    Lysen, E.H.
    Wind Engineering, 1981, 5 (04) : 194 - 206
  • [36] Yaw control for reduction of structural dynamic loads in wind turbines
    Ekelund, T
    JOURNAL OF WIND ENGINEERING AND INDUSTRIAL AERODYNAMICS, 2000, 85 (03) : 241 - 262
  • [37] Nonlinear wave and currents loads analysis of offshore wind turbines
    Xiaobo Chen
    Jing Li
    JianYun Chen
    KSCE Journal of Civil Engineering, 2014, 18 : 1877 - 1883
  • [38] Atmospheric turbulence and its influence on the alternating loads on wind turbines
    Muecke, Tanja
    Kleinhans, David
    Peinke, Joachim
    WIND ENERGY, 2011, 14 (02) : 301 - 316
  • [39] Reconstruction of operating loads in wind turbines with inertial measurement units
    Wiens, Marcus
    Martin, Tim
    Meyer, Tobias
    Zuga, Adam
    FORSCHUNG IM INGENIEURWESEN-ENGINEERING RESEARCH, 2021, 85 (02): : 181 - 188
  • [40] Effect of turbulence variation on extreme loads prediction for wind turbines
    Moriarty, PJ
    Holley, WE
    Butterfield, S
    JOURNAL OF SOLAR ENERGY ENGINEERING-TRANSACTIONS OF THE ASME, 2002, 124 (04): : 387 - 395