• DocumentCode
    32950
  • Title

    Electromagnetic Modeling of Third-Order Nonlinearities in Photonic Crystal Fibers Using a Vector Two-Dimensional FDTD Algorithm

  • Author

    Salski, B. ; Karpisz, T. ; Buczynski, R.

  • Author_Institution
    Inst. of Radioelectron., Warsaw Univ. of Technol., Warsaw, Poland
  • Volume
    33
  • Issue
    13
  • fYear
    2015
  • fDate
    July1, 1 2015
  • Firstpage
    2905
  • Lastpage
    2912
  • Abstract
    An algorithm accounting for dispersive and third-order nonlinear effects in a vector two-dimensional FDTD method is developed and validated in this paper. Kerr and Raman phenomena are implemented in FDTD using a new approach, which combines the accuracy of a rigorous FDTD update scheme and the speed of an approximate solution. As it is shown in this paper, the proposed method is applicable to the mode analysis of waveguide structures, like photonic crystal fibers, where the appropriate balance between dispersion and nonlinear phenomena is essential for supercontinuum generation. Several computational examples discussed in this paper successfully validate the proposed method.
  • Keywords
    Raman spectra; finite difference time-domain analysis; holey fibres; nonlinear optical susceptibility; optical Kerr effect; optical fibre dispersion; photonic crystals; supercontinuum generation; Kerr phenomena; Raman phenomena; dispersive nonlinear effects; electromagnetic modeling; finite difference time-domain analysis; mode analysis; photonic crystal fibers; supercontinuum generation; third-order nonlinearities; vector two-dimensional FDTD algorithm; waveguide structures; Dispersion; Finite difference methods; Glass; Mathematical model; Nonlinear optics; Refractive index; Time-domain analysis; FDTD; Kerr; Raman; photonic crystal fiber; supercontinuum;
  • fLanguage
    English
  • Journal_Title
    Lightwave Technology, Journal of
  • Publisher
    ieee
  • ISSN
    0733-8724
  • Type

    jour

  • DOI
    10.1109/JLT.2015.2421522
  • Filename
    7089161