• DocumentCode
    1265797
  • Title

    40 Gb/s and 4×40 Gb/s TDM/WDM standard fiber transmission

  • Author

    Weinert, C.M. ; Ludwig, R. ; Pieper, W. ; Weber, H.G. ; Breuer, D. ; Petermann, K. ; Küppers, F.

  • Author_Institution
    Heinrich-Hertz-Inst. fur Nachrichtentech. Berlin GmbH, Germany
  • Volume
    17
  • Issue
    11
  • fYear
    1999
  • fDate
    11/1/1999 12:00:00 AM
  • Firstpage
    2276
  • Lastpage
    2284
  • Abstract
    We investigate the possibilities of 40 and 4×40 Gb/s time division multiplexing wavelength division multiplexing (TDM/WDM) return-to-zero (RZ) transmission over embedded standard single-mode fibers (SMF) at a transmission wavelength of 1.55 μm both experimentally and theoretically. Dispersion of the SMF is compensated by a dispersion compensating fiber (DCF). Transmission over a span of 150 km of SMF in the single-channel case and of 100 km SMF in the multichannel case are reported. Numerical calculations are employed to investigate the possibility of cascading the spans both for single-channel and multichannel transmission. For single-channel transmission, it is shown that optimum performance is achieved with postcompensation of the DCF. The input power at the SMF and DCF input have to be chosen carefully. For four channel transmission, the performance is mainly limited by residual dispersion in the outermost wavelength channels. It is shown numerically that improvement is achieved by employing the newest type DCF which also compensates the dispersion slope of the SMF. For a WDM channel separation of 2 nm no significant additional degradation due to cross-phase modulation (XPM) or four-wave mixing is observed
  • Keywords
    digital communication; error statistics; optical fibre communication; optical fibre dispersion; time division multiplexing; wavelength division multiplexing; 1.55 micron; 100 km; 150 km; 40 Gbit/s; BER; RZ transmission; TDM/WDM standard fiber transmission; bit error rate; dispersion compensating fiber; embedded standard single-mode fibers; four channel transmission; multichannel transmission; optimum performance; postcompensation; return-to-zero transmission; single-channel transmission; span cascading; time division multiplexing; wavelength division multiplexing; Degradation; Erbium-doped fiber amplifier; High speed optical techniques; Optical fiber communication; Optical fiber networks; Optical fiber polarization; Optical solitons; Polarization mode dispersion; Time division multiplexing; Wavelength division multiplexing;
  • fLanguage
    English
  • Journal_Title
    Lightwave Technology, Journal of
  • Publisher
    ieee
  • ISSN
    0733-8724
  • Type

    jour

  • DOI
    10.1109/50.803020
  • Filename
    803020