@Article{         Auserhofer_2007aa,
  abstract      = {A method is presented which determines the steady-state solution of nonlinear eddy current problems. The unknown potentials are represented by Fourier-series and the nonlinear behavior of the material is split into a linear and a nonlinear term using a fixed-point technique. This approach leads to decoupled linear equations for each harmonic component. To take the nonlinearity into account, several fixed-point iterations have to be made. The method avoids calculating transient processes which normally have to be stepped through if using time-stepping methods. The present method is illustrated by two 2-D examples},
  author        = {Außerhofer, Stefan and Bíró, Oszkár and Preis, Kurt},
  doi           = {10.1109/TMAG.2006.890961},
  file          = {Auserhofer_2007aa.pdf},
  group         = {pels},
  issn          = {0018-9464},
  journal       = {IEEE Transactions on Magnetics},
  keywords      = {Fourier series,eddy currents,fixed point arithmetic,harmonic analysis,transient analysis,Fourier series,fixed-point iteration,harmonic balance method,harmonic components,nonlinear behavior,nonlinear eddy-current problems,steady-state methods,time-stepping methods,transient process,Differential equations,Eddy currents,Electromagnetic forces,Electromagnetic transients,Magnetic flux,Magnetic materials,Magnetic separation,Nonlinear equations,Nonlinear magnetics,Steady-state,Eddy currents,nonlinear equations,nonlinear magnetics,periodic functions},
  month         = apr,
  number        = {4},
  pages         = {1229--1232},
  publisher     = {IEEE},
  title         = {An Efficient Harmonic Balance Method for Nonlinear Eddy-Current Problems},
  volume        = {43},
  year          = {2007},
  shortjournal  = {IEEE Trans. Magn.}
}

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Magn.","bibtex":"@Article{ Auserhofer_2007aa,\n abstract = {A method is presented which determines the steady-state solution of nonlinear eddy current problems. The unknown potentials are represented by Fourier-series and the nonlinear behavior of the material is split into a linear and a nonlinear term using a fixed-point technique. This approach leads to decoupled linear equations for each harmonic component. To take the nonlinearity into account, several fixed-point iterations have to be made. The method avoids calculating transient processes which normally have to be stepped through if using time-stepping methods. 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