• DocumentCode
    2516041
  • Title

    Simulation and analysis of starting transients in rotor-chopper-controlled doubly-fed induction motors

  • Author

    Wang, Liwei ; Chiniforoosh, Sina ; Jatskevich, Juri

  • Author_Institution
    Dept. of Electr. & Comput. Eng., Univ. of British Columbia, Vancouver, BC
  • fYear
    2008
  • fDate
    6-7 Oct. 2008
  • Firstpage
    1
  • Lastpage
    6
  • Abstract
    The direct starting of induction motors may cause various problems such as high inrush currents, voltage dips and harmonics. There have been numerous methods proposed to mitigate these stresses that are imposed on the power grid. This paper considers a starting method based on external rotor resistance control scheme that is used with wound-rotor induction machines. The so-called rotor-chopper-controlled topology is used to start an induction machine with maximum torque. The Automated state model generation (ASMG) algorithm is used to implement detailed switching model of the system in MATLAB/Simulink. Computer studies of a typical high power induction machine demonstrate that the machine start-up currents and the total energy consumption are significantly reduced while the induced electromagnetic torque is greatly increased with the rotor chopper controller applied.
  • Keywords
    induction motors; machine control; rotors; starting; automated state model generation algorithm; external rotor resistance control scheme; induction motor direct starting; power grid; rotor-chopper-controlled doubly-fed induction motors; wound-rotor induction machines; Analytical models; Induction machines; Induction motors; Mathematical model; Power system modeling; Rotors; Stress; Surges; Transient analysis; Voltage fluctuations; Dynamic simulation; maximal torque; rotor chopper control; starting transient; wound-rotor induction machine;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Electric Power Conference, 2008. EPEC 2008. IEEE Canada
  • Conference_Location
    Vancouver, BC
  • Print_ISBN
    978-1-4244-2894-6
  • Electronic_ISBN
    978-1-4244-2895-3
  • Type

    conf

  • DOI
    10.1109/EPC.2008.4763329
  • Filename
    4763329