• DocumentCode
    1434900
  • Title

    Experimental comparison of the effect of discrete and distributed path inband crosstalk on system performance: application to predicting system performance penalties

  • Author

    Yadlowsky, Michael J. ; Da Silva, Valéria L.

  • Author_Institution
    Corning Inc., NY, USA
  • Volume
    16
  • Issue
    10
  • fYear
    1998
  • fDate
    10/1/1998 12:00:00 AM
  • Firstpage
    1813
  • Lastpage
    1821
  • Abstract
    The system performance degradations of inband crosstalk produced by distributed Rayleigh scattering and a single discrete time delayed path have been measured in the same system. Rayleigh scatter crosstalk degrades performance more than equal amounts of discrete crosstalk. By parameterizing the system bit error rate (BER) and received power, we have separated the optical and electrical noise contributions to the BER based on their intensity and crosstalk scaling. We observed behavior consistent with earlier models, but found an unexpected increase in the total optical noise. This excess noise had a very regular linear scaling with crosstalk power. Because of its well defined crosstalk and intensity scaling, this easily measured noise term can be used as a correction to established models to more accurately estimate system performance at high optical powers and low crosstalk levels
  • Keywords
    Rayleigh scattering; optical crosstalk; optical fibre communication; optical noise; Rayleigh scatter crosstalk; crosstalk scaling; discrete crosstalk; discrete inband crosstalk; distributed Rayleigh scattering; distributed path inband crosstalk; electrical noise contributions; high optical powers; intensity scaling; low crosstalk levels; optical noise contributions; received power; single discrete time delayed path; system bit error rate; system performance; system performance penalties prediction; total optical noise; very regular linear scaling; Bit error rate; Degradation; Delay effects; Optical crosstalk; Optical noise; Optical scattering; Power system modeling; Rayleigh scattering; System performance; Time measurement;
  • fLanguage
    English
  • Journal_Title
    Lightwave Technology, Journal of
  • Publisher
    ieee
  • ISSN
    0733-8724
  • Type

    jour

  • DOI
    10.1109/50.721068
  • Filename
    721068