DSP-Based Link Tomography for Amplifier Gain Estimation and Anomaly Detection in C+L-Band Systems

A successful migration from current C-band based optical networks to a multiband scenario primarily depends on the development of solutions that can reliably measure physical properties of optical links over broad spectral transmission windows. Additionally, these solutions must be capable of delive...

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Veröffentlicht in:Journal of lightwave technology 2022-06, Vol.40 (11), p.3395-3405
Hauptverfasser: Sena, Matheus, Emmerich, Robert, Shariati, Behnam, Santos, Caio, Napoli, Antonio, Fischer, Johannes K., Freund, Ronald
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container_end_page 3405
container_issue 11
container_start_page 3395
container_title Journal of lightwave technology
container_volume 40
creator Sena, Matheus
Emmerich, Robert
Shariati, Behnam
Santos, Caio
Napoli, Antonio
Fischer, Johannes K.
Freund, Ronald
description A successful migration from current C-band based optical networks to a multiband scenario primarily depends on the development of solutions that can reliably measure physical properties of optical links over broad spectral transmission windows. Additionally, these solutions must be capable of delivering wavelength-dependent and spatially-resolved indicators that can empower network operators to identify faults before they lead to severe service disruptions. Recently, the exploitation of receiver based digital signal processing as a tool for optical performance monitoring has gained tremendous popularity. One successful example is the so-called in-situ power profile estimator, which can reconstruct the per-channel longitudinal power profile along the optical fiber link solely processing the received signal samples. In this work, we propose a novel application for the in-situ power profile estimator by harnessing it on multiple wavelengths to accurately estimate the spectral gain profile of C+L-band in-line Erbium-doped fiber amplifiers deployed in a 280-km single mode fiber link. Furthermore, we show how this scheme can be efficiently used to detect amplification-related anomalies, such as gain tilt and narrowband gain compression. In our measurements, we achieved a sub-dB estimation accuracy by comparing the proposed gain extraction approach with the back-to-back characterization obtained from an optical spectrum analyzer.
doi_str_mv 10.1109/JLT.2022.3160101
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subjects Amplification
Amplifiers
Anomalies
Anomaly detection
C band
C+L-band
Digital signal processing
Doped fibers
Erbium
Fault detection
fiber nonlinearity
Monitoring
Narrowband
Optical communication
Optical fiber amplifiers
Optical fiber devices
Optical fiber networks
Optical fibers
optical performance monitoring
Optical properties
Optical receivers
Personal protective equipment
Physical properties
Power
Spectrum analysers
Tomography
title DSP-Based Link Tomography for Amplifier Gain Estimation and Anomaly Detection in C+L-Band Systems
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