Simulation of RIN transfer in coherent optical communication links with distributed raman amplification

T. M. Fedotenko, A. E. Bednyakova, M. Tan, V. Dvoyrin, M. P. Fedoruk, S. K. Turitsyn

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Abstract

It is well known that degradation of an information signal during its propagation along the optical fiber communication link affects the achievable bit rate. In practice, any real transmission link introduces signal distortions that can be either recoverable (e.g., dispersive broadening) or not fully removable (e.g., noise). The sources of such unremovable distortions leading to loss of information are: amplified spontaneous emission (ASE), double Rayleigh scattering (DRS), RIN (relative intensity noise) transfer and other effects. Knowledge of noise properties of the distributed Raman amplifiers (DRAs) are important for Raman-based communication systems [1]. RIN transfer from pump to signal in DRAs has studied both numerically [2] and analytically [3] as a main factor limiting telecom applications of such amplifiers. However, the most common analytical and numerical models are based on balance (average-power) equations and do not describe evolution of phase modulated signals along the fiber under influence of dispersive and nonlinear effects.
Original languageEnglish
Title of host publicationThe European Conference on Lasers and Electro-Optics, CLEO_Europe 2017
PublisherOptical Society of America
VolumePart F82-CLEO_Europe 2017
ISBN (Electronic)9781557528209
Publication statusPublished - 29 Jun 2017
EventThe European Conference on Lasers and Electro-Optics, CLEO_Europe 2017 - Munich, Germany
Duration: 25 Jun 201729 Jun 2017

Conference

ConferenceThe European Conference on Lasers and Electro-Optics, CLEO_Europe 2017
CountryGermany
CityMunich
Period25/06/1729/06/17

Fingerprint

Signal distortion
Optical fiber communication
Rayleigh scattering
Spontaneous emission
Optical communication
Telecommunication links
Amplification
Numerical models
Analytical models
Communication systems
Pumps
Degradation
Fibers

Cite this

Fedotenko, T. M., Bednyakova, A. E., Tan, M., Dvoyrin, V., Fedoruk, M. P., & Turitsyn, S. K. (2017). Simulation of RIN transfer in coherent optical communication links with distributed raman amplification. In The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017 (Vol. Part F82-CLEO_Europe 2017). Optical Society of America.
Fedotenko, T. M. ; Bednyakova, A. E. ; Tan, M. ; Dvoyrin, V. ; Fedoruk, M. P. ; Turitsyn, S. K. / Simulation of RIN transfer in coherent optical communication links with distributed raman amplification. The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017. Vol. Part F82-CLEO_Europe 2017 Optical Society of America, 2017.
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Fedotenko, TM, Bednyakova, AE, Tan, M, Dvoyrin, V, Fedoruk, MP & Turitsyn, SK 2017, Simulation of RIN transfer in coherent optical communication links with distributed raman amplification. in The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017. vol. Part F82-CLEO_Europe 2017, Optical Society of America, The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017, Munich, Germany, 25/06/17.

Simulation of RIN transfer in coherent optical communication links with distributed raman amplification. / Fedotenko, T. M.; Bednyakova, A. E.; Tan, M.; Dvoyrin, V.; Fedoruk, M. P.; Turitsyn, S. K.

The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017. Vol. Part F82-CLEO_Europe 2017 Optical Society of America, 2017.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

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AU - Bednyakova, A. E.

AU - Tan, M.

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N2 - It is well known that degradation of an information signal during its propagation along the optical fiber communication link affects the achievable bit rate. In practice, any real transmission link introduces signal distortions that can be either recoverable (e.g., dispersive broadening) or not fully removable (e.g., noise). The sources of such unremovable distortions leading to loss of information are: amplified spontaneous emission (ASE), double Rayleigh scattering (DRS), RIN (relative intensity noise) transfer and other effects. Knowledge of noise properties of the distributed Raman amplifiers (DRAs) are important for Raman-based communication systems [1]. RIN transfer from pump to signal in DRAs has studied both numerically [2] and analytically [3] as a main factor limiting telecom applications of such amplifiers. However, the most common analytical and numerical models are based on balance (average-power) equations and do not describe evolution of phase modulated signals along the fiber under influence of dispersive and nonlinear effects.

AB - It is well known that degradation of an information signal during its propagation along the optical fiber communication link affects the achievable bit rate. In practice, any real transmission link introduces signal distortions that can be either recoverable (e.g., dispersive broadening) or not fully removable (e.g., noise). The sources of such unremovable distortions leading to loss of information are: amplified spontaneous emission (ASE), double Rayleigh scattering (DRS), RIN (relative intensity noise) transfer and other effects. Knowledge of noise properties of the distributed Raman amplifiers (DRAs) are important for Raman-based communication systems [1]. RIN transfer from pump to signal in DRAs has studied both numerically [2] and analytically [3] as a main factor limiting telecom applications of such amplifiers. However, the most common analytical and numerical models are based on balance (average-power) equations and do not describe evolution of phase modulated signals along the fiber under influence of dispersive and nonlinear effects.

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Fedotenko TM, Bednyakova AE, Tan M, Dvoyrin V, Fedoruk MP, Turitsyn SK. Simulation of RIN transfer in coherent optical communication links with distributed raman amplification. In The European Conference on Lasers and Electro-Optics, CLEO_Europe 2017. Vol. Part F82-CLEO_Europe 2017. Optical Society of America. 2017