• DocumentCode
    9404
  • Title

    Improvement and Application of the Viscous-Type Frequency-Dependent Preisach Model

  • Author

    Kuczmann, Miklos ; Kovacs, Gabor

  • Author_Institution
    Dept. of Autom., Szechenyi Istvan Univ., Gyor, Hungary
  • Volume
    50
  • Issue
    2
  • fYear
    2014
  • fDate
    Feb. 2014
  • Firstpage
    385
  • Lastpage
    388
  • Abstract
    Iron parts of electrical machines are made of nonoriented isotropic ferromagnetic materials. The finite element method (FEM) is usually applied in the numerical field analysis and design of this equipment. The scalar Preisach hysteresis model has been implemented for the simulation of static and dynamic magnetic effects inside the ferromagnetic parts of motors. The dynamic model is an extension of the static one; an extra magnetic field intensity term is added to the output of the static inverse model. This is a viscosity-type dynamic model. The fixed point method with stable scheme has been realized to take frequency-dependent anomalous losses into account in FEM. This scheme can be used efficiently in the frame of any potential formulations of Maxwell´s equations. The comparison between measured and simulated data using a toroidal core shows a good agreement. A modified nonlinear version of T.E.A.M. Problem No. 30.a is also shown to test the hysteresis model in the FEM procedure.
  • Keywords
    Maxwell equations; electric machine analysis computing; ferromagnetic materials; finite element analysis; induction motors; magnetic field effects; magnetic field measurement; magnetic hysteresis; viscosity; FEM; Maxwell equations; dynamic magnetic effect simulation; electrical machines; equipment design; finite element method; fixed point method; frequency-dependent anomalous losses; iron parts; magnetic field intensity term; motor ferromagnetic parts; nonoriented isotropic ferromagnetic materials; numerical field analysis; scalar Preisach hysteresis model; stability scheme; static inverse model; static magnetic effect simulation; toroidal core; viscosity-type dynamic model; viscous-type frequency-dependent Preisach model; Current measurement; Finite element analysis; Magnetic cores; Magnetic hysteresis; Mathematical model; Numerical models; Toroidal magnetic fields; Dynamic hysteresis; dynamic Preisach model; finite element method (FEM); fixed point method;
  • fLanguage
    English
  • Journal_Title
    Magnetics, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0018-9464
  • Type

    jour

  • DOI
    10.1109/TMAG.2013.2283398
  • Filename
    6749194