Straight-Line Experiment and Numerical Simulation for RZ-Signal Long-Distance Transmission with Periodic Dispersion Compensation

Akira NAKA; Toshiya MATSUDA; Shigeru SAITO

Straight-Line Experiment and Numerical Simulation for RZ-Signal Long-Distance Transmission with Periodic Dispersion Compensation

Akira NAKA, Toshiya MATSUDA, Shigeru SAITO

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RZ signal transmission in an anomalous region with periodic dispersion compensation is examined by a straight-line experiment in terms of the compensation ratio, the signal power, and the pulse width. The optimum condition enables single-channel 20-Gbit/s RZ signal and two-WDM-channel 20-Gbit/s signals (40-Gbit/s in total) to be transmitted over 5,520 km and 2,160 km, respectively. Numerical simulations with the assistance of a basic theory enables analysis of the experimental results. It is shown that the balance between the waveform distortion and the remaining Gordon-Haus jitter determines the optimum conditions to achieve the longest transmission distance. Excess dispersion compensation results in waveform distortion, while insufficient compensation causes a greater amount of remaining jitter. Moreover, spectrum deformation during propagation is experimentally and numerically clarified to have a large effect on the transmission performance, especially for WDM transmission.

Publication: IEICE TRANSACTIONS on Communications Vol.E81-B No.4 pp.722-728

Publication Date: 1998/04/25

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Category: Optical Communication

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Akira NAKA, Toshiya MATSUDA, Shigeru SAITO, "Straight-Line Experiment and Numerical Simulation for RZ-Signal Long-Distance Transmission with Periodic Dispersion Compensation" in IEICE TRANSACTIONS on Communications, vol. E81-B, no. 4, pp. 722-728, April 1998, doi: .
Abstract: RZ signal transmission in an anomalous region with periodic dispersion compensation is examined by a straight-line experiment in terms of the compensation ratio, the signal power, and the pulse width. The optimum condition enables single-channel 20-Gbit/s RZ signal and two-WDM-channel 20-Gbit/s signals (40-Gbit/s in total) to be transmitted over 5,520 km and 2,160 km, respectively. Numerical simulations with the assistance of a basic theory enables analysis of the experimental results. It is shown that the balance between the waveform distortion and the remaining Gordon-Haus jitter determines the optimum conditions to achieve the longest transmission distance. Excess dispersion compensation results in waveform distortion, while insufficient compensation causes a greater amount of remaining jitter. Moreover, spectrum deformation during propagation is experimentally and numerically clarified to have a large effect on the transmission performance, especially for WDM transmission.
URL: https://globals.ieice.org/en_transactions/communications/10.1587/e81-b_4_722/_p

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@ARTICLE{e81-b_4_722,
author={Akira NAKA, Toshiya MATSUDA, Shigeru SAITO, },
journal={IEICE TRANSACTIONS on Communications},
title={Straight-Line Experiment and Numerical Simulation for RZ-Signal Long-Distance Transmission with Periodic Dispersion Compensation},
year={1998},
volume={E81-B},
number={4},
pages={722-728},
abstract={RZ signal transmission in an anomalous region with periodic dispersion compensation is examined by a straight-line experiment in terms of the compensation ratio, the signal power, and the pulse width. The optimum condition enables single-channel 20-Gbit/s RZ signal and two-WDM-channel 20-Gbit/s signals (40-Gbit/s in total) to be transmitted over 5,520 km and 2,160 km, respectively. Numerical simulations with the assistance of a basic theory enables analysis of the experimental results. It is shown that the balance between the waveform distortion and the remaining Gordon-Haus jitter determines the optimum conditions to achieve the longest transmission distance. Excess dispersion compensation results in waveform distortion, while insufficient compensation causes a greater amount of remaining jitter. Moreover, spectrum deformation during propagation is experimentally and numerically clarified to have a large effect on the transmission performance, especially for WDM transmission.},
keywords={},
doi={},
ISSN={},
month={April},}

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TY - JOUR
TI - Straight-Line Experiment and Numerical Simulation for RZ-Signal Long-Distance Transmission with Periodic Dispersion Compensation
T2 - IEICE TRANSACTIONS on Communications
SP - 722
EP - 728
AU - Akira NAKA
AU - Toshiya MATSUDA
AU - Shigeru SAITO
PY - 1998
DO -
JO - IEICE TRANSACTIONS on Communications
SN -
VL - E81-B
IS - 4
JA - IEICE TRANSACTIONS on Communications
Y1 - April 1998
AB - RZ signal transmission in an anomalous region with periodic dispersion compensation is examined by a straight-line experiment in terms of the compensation ratio, the signal power, and the pulse width. The optimum condition enables single-channel 20-Gbit/s RZ signal and two-WDM-channel 20-Gbit/s signals (40-Gbit/s in total) to be transmitted over 5,520 km and 2,160 km, respectively. Numerical simulations with the assistance of a basic theory enables analysis of the experimental results. It is shown that the balance between the waveform distortion and the remaining Gordon-Haus jitter determines the optimum conditions to achieve the longest transmission distance. Excess dispersion compensation results in waveform distortion, while insufficient compensation causes a greater amount of remaining jitter. Moreover, spectrum deformation during propagation is experimentally and numerically clarified to have a large effect on the transmission performance, especially for WDM transmission.
ER -