SELF-IMAGING BASED DISPERSION COMPENSATION: PERFORMANCE AND TOLERANCE OF THE SYSTEM

被引:0
|
作者
Guizani, Sghaier [1 ]
Hamam, Habib [2 ,3 ]
机构
[1] Qatar Univ, Math & Comp Dept, Doha, Qatar
[2] Univ Moncton, Dept Elect Engn, Moncton, NB E1A 3E9, Canada
[3] Canadian Univ Dubai, Dubai, U Arab Emirates
关键词
Chromatic dispersion; optical transmission; Inter-Symbol Interference; Talbot effect; UWB;
D O I
暂无
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
Transmitting ultra wideband (UWB) pulse signals over optical fiber is a certain sign of Chromatic dispersion existence. (CD) is a serious problem in optical transmission because the velocity of light depends on the frequencies. The effect is strengthened when the optical pulse gets shorter because its spectrum gets broader. This results in a temporal broadening of the initial pulse. The signal is then deformed during propagation, resulting in Inter-Symbol Interference (ISI). Alteration is more pronounced if the optical signal travels further, yielding to shortening the inter-repeater distance. We propose a method for chromatic dispersion compensation. It is based on the Temporal Talbot effect that is observed when a periodic signal propagates through a dispersive medium at a given distance named Talbot distance Z(T). Our method consists in adding a portion of a dispersive fiber so that the overall propagation distance corresponds to one specific distance, called a fractional Talbot distance. Because a specific length of a generally long fiber is put into play, the tolerance permitted by the approach needs particular attention
引用
收藏
页码:920 / +
页数:2
相关论文
共 50 条
  • [31] Self-imaging of electromagnetic fields
    Tervo, J
    Turunen, J
    OPTICS EXPRESS, 2001, 9 (12): : 622 - 630
  • [32] Beamsplitting using self-imaging
    Earl, DD
    Allison, SW
    Dinh, TV
    Alarie, JP
    Hueber, D
    Gillies, GT
    Landis, DA
    Cates, MR
    CHEMICAL, BIOCHEMICAL, AND ENVIRONMENTAL FIBER SENSORS VIII, 1996, 2836 : 216 - 220
  • [33] Self-imaging in atom waveguides
    Rohwedder, B.
    Physical Review A. Atomic, Molecular, and Optical Physics, 2001, 63 (05): : 536041 - 536041
  • [34] Programmable sub-harmonic opticalclock recovery based on dispersion-induced inverse temporal self-imaging
    Jeon, Jinwoo
    Maram, Reza
    Van Howe, James
    Azana, Jose
    2018 CONFERENCE ON LASERS AND ELECTRO-OPTICS (CLEO), 2018,
  • [35] Self-imaging calibration of a visual sensing system with pyramidal mirrors
    Kim, JY
    OPTICAL ENGINEERING, 2005, 44 (06) : 1 - 14
  • [36] First-order aberration of a misfocused self-imaging system
    Chang, Soo
    Lee, Sang Il
    OPTIK, 2008, 119 (15): : 742 - 748
  • [37] Wavelength division (de)multiplexing based on dispersive self-imaging
    Hu, Y.
    Jenkins, R. M.
    Gardes, F. Y.
    Finlayson, E. D.
    Mashanovich, G. Z.
    Reed, G. T.
    OPTICS LETTERS, 2011, 36 (23) : 4488 - 4490
  • [38] Degenerate self-imaging Fourier filters
    Matczak, MJ
    Mamczur, JA
    OPTO-ELECTRONICS REVIEW, 2001, 9 (03) : 336 - 340
  • [39] THE SELF-IMAGING PHENOMENON AND ITS APPLICATIONS
    PATORSKI, K
    PROGRESS IN OPTICS, 1989, 27 : 1 - 108
  • [40] Self-imaging silicon Raman amplifier
    Raghunathan, Varun
    Renner, Hagen
    Rice, Robert R.
    Jalali, Bahram
    OPTICS EXPRESS, 2007, 15 (06): : 3396 - 3408