• DocumentCode
    3028188
  • Title

    Finite difference methods in optoelectronic simulation

  • Author

    Benson, T.M. ; Sewell, P. ; Kendall, P.C. ; Sujecki, S.

  • Author_Institution
    Dept. of Electr. & Electron. Eng., Nottingham Univ., UK
  • fYear
    1999
  • fDate
    1999
  • Firstpage
    47
  • Lastpage
    48
  • Abstract
    Large scale numerical models based on two-dimensional or three-dimensional meshes are often used in the study of optical waveguides and related components. The finite difference (FD) method is one such technique. It has proven very effective for calculations of the propagation constants and field profiles of the modes supported by a wide range of waveguide technologies. More recently, it has also been applied in the time domain and in beam propagation. We will review FD mode solvers. The first such solvers were based on the scalar wave equation which is a simple, self-adjoint equation. When written in difference form, this yields a symmetrical coefficient matrix whose eigenvalues are easy to find
  • Keywords
    eigenvalues and eigenfunctions; finite difference methods; matrix algebra; optical waveguide theory; FD mode solvers; eigenvalues; field profiles; finite difference methods; large scale numerical models; optical waveguides; optoelectronic simulation; propagation constants; scalar wave equation; self-adjoint equation; symmetrical coefficient matrix; waveguide technologies; Finite difference methods; Large-scale systems; Numerical models; Optical devices; Optical waveguide components; Optical waveguides; Partial differential equations; Propagation constant; Symmetric matrices; Transmission line matrix methods;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Transparent Optical Networks, 1999. International Conference on
  • Conference_Location
    Kielce
  • Print_ISBN
    0-7803-5637-3
  • Type

    conf

  • DOI
    10.1109/ICTON.1999.781841
  • Filename
    781841