• DocumentCode
    71828
  • Title

    Polarization Rotator Based on Hybrid Plasmonic Photonic Crystal Fiber

  • Author

    Lei Chen ; Weigang Zhang ; Quan Zhou ; Yongji Liu ; Sieg, Jonathan ; Liyu Zhang ; Li Wang ; Biao Wang ; Tieyi Yan

  • Author_Institution
    Key Lab. of Opt. Inf. Sci. & Technol., Nankai Univ., Tianjin, China
  • Volume
    26
  • Issue
    22
  • fYear
    2014
  • fDate
    Nov.15, 15 2014
  • Firstpage
    2291
  • Lastpage
    2294
  • Abstract
    A photonic crystal fiber polarization rotator (PR) is proposed based on a novel mechanism-mode interference by two hybrid waveguide modes, rather than adjusting optical property in the light-guided part. The proposed PR is achieved by introducing two defects and an ancillary Au nanowire into the background lattice, and under the optimized parameters, the PR can offer almost a 100% polarization conversion ratio in the wavelength of 1.55-μm band (~100-nm bandwidth), compact length ~162.7 μm, low modal insertion loss of ~1.2 dB, and high coupling efficiency over 0.92 for both TE and TM mode based on the numerical simulation result of the full-vector finite-element method.
  • Keywords
    finite element analysis; gold; holey fibres; nanowires; optical fibre losses; optical fibre polarisation; optical rotation; photonic crystals; plasmonics; Au; PR; TE mode; TM mode; ancillary Au nanowire; background lattice; compact length; coupling efficiency; defects; full-vector finite-element method; hybrid plasmonic photonic crystal fiber; hybrid waveguide modes; light-guided part; mechanism-mode interference; modal insertion loss; numerical simulation; optical property; optimized parameters; photonic crystal fiber polarization rotator; polarization conversion ratio; wavelength 1.55 mum; Couplings; Insertion loss; Optical waveguides; Optimized production technology; Photonic crystal fibers; Plasmons; Silicon compounds; Full-vector finite-element method; fiber sensor; hybrid plasmonics; photonic crystal fibers; polarization rotation;
  • fLanguage
    English
  • Journal_Title
    Photonics Technology Letters, IEEE
  • Publisher
    ieee
  • ISSN
    1041-1135
  • Type

    jour

  • DOI
    10.1109/LPT.2014.2352356
  • Filename
    6899650