Influence of rotor structural dynamics representations on the electrical transient performance of FSIG and DFIG wind turbines

G. Ramtharan, N. Jenkins, O. Anaya-Lara, E. Bossanyi

Research output: Contribution to journalArticle

63 Citations (Scopus)

Abstract

An assessment of the impact that the representation of rotor structural dynamics has on the electrical transient performance of fixed-speed induction generators (FSIGs) and doubly fed induction generators (DFIGs) wind turbines is presented. A three-mass model that takes into account not only the shaft flexibility but also the blade flexibility in the structural dynamics is developed and used to derive an effective two-mass model of the drive train dynamics, which represents the dominant natural frequency of vibration of the rotor structure. For the purposes of this investigation, the dynamic performance of both FSIG and DFIG wind turbines is evaluated during electrical transients such as a three-phase fault in the network. The studies are conducted in the software code Bladed, where a detailed representation of the structural dynamics is used to derive the three-mass model and the effective two-mass model. Simulation results which illustrate how these representations of the rotor dynamics affect the response of the wind turbine during the fault are presented and discussed.
LanguageEnglish
Pages293-301
Number of pages9
JournalWind Energy
Volume10
Issue number4
Early online date7 Mar 2007
DOIs
Publication statusPublished - 2007

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Asynchronous generators
Structural dynamics
Wind turbines
Rotors
Vibrations (mechanical)
Natural frequencies

Keywords

  • multi-mass model
  • two-mass model
  • structural dynamics
  • blade vibration

Cite this

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title = "Influence of rotor structural dynamics representations on the electrical transient performance of FSIG and DFIG wind turbines",
abstract = "An assessment of the impact that the representation of rotor structural dynamics has on the electrical transient performance of fixed-speed induction generators (FSIGs) and doubly fed induction generators (DFIGs) wind turbines is presented. A three-mass model that takes into account not only the shaft flexibility but also the blade flexibility in the structural dynamics is developed and used to derive an effective two-mass model of the drive train dynamics, which represents the dominant natural frequency of vibration of the rotor structure. For the purposes of this investigation, the dynamic performance of both FSIG and DFIG wind turbines is evaluated during electrical transients such as a three-phase fault in the network. The studies are conducted in the software code Bladed, where a detailed representation of the structural dynamics is used to derive the three-mass model and the effective two-mass model. Simulation results which illustrate how these representations of the rotor dynamics affect the response of the wind turbine during the fault are presented and discussed.",
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Influence of rotor structural dynamics representations on the electrical transient performance of FSIG and DFIG wind turbines. / Ramtharan, G.; Jenkins, N.; Anaya-Lara, O.; Bossanyi, E.

In: Wind Energy, Vol. 10, No. 4, 2007, p. 293-301.

Research output: Contribution to journalArticle

TY - JOUR

T1 - Influence of rotor structural dynamics representations on the electrical transient performance of FSIG and DFIG wind turbines

AU - Ramtharan, G.

AU - Jenkins, N.

AU - Anaya-Lara, O.

AU - Bossanyi, E.

PY - 2007

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AB - An assessment of the impact that the representation of rotor structural dynamics has on the electrical transient performance of fixed-speed induction generators (FSIGs) and doubly fed induction generators (DFIGs) wind turbines is presented. A three-mass model that takes into account not only the shaft flexibility but also the blade flexibility in the structural dynamics is developed and used to derive an effective two-mass model of the drive train dynamics, which represents the dominant natural frequency of vibration of the rotor structure. For the purposes of this investigation, the dynamic performance of both FSIG and DFIG wind turbines is evaluated during electrical transients such as a three-phase fault in the network. The studies are conducted in the software code Bladed, where a detailed representation of the structural dynamics is used to derive the three-mass model and the effective two-mass model. Simulation results which illustrate how these representations of the rotor dynamics affect the response of the wind turbine during the fault are presented and discussed.

KW - multi-mass model

KW - two-mass model

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KW - blade vibration

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