Two artificial neural network (ANN) models are presented to predict power profiles over C+L–band in presence of inter-channel stimulated Raman scattering (ISRS) and to support non-linear interference (NLI) modeling. High prediction accuracy is obtained with maximum errors ≤ 0.1 dB over thousands different partial loads
An analytical model to estimate nonlinear performance in ultra-wideband optical transmission network...
To effectively operate multi-vendor disaggregated networks, performance of physical layer needs to b...
A closed-form formula is derived, which corrects for the modulation format dependence of the Gaussia...
We introduce a load aware machine learning method for prediction of Raman gain profiles. It enables ...
We propose a Convolutional Neural Network (CNN) to learn the mapping between the 2D power profiles, ...
A machine learning framework predicting pump powers and noise figure profile for a target distribute...
It has been recently demonstrated that neural networks can learn the complex pump–signal relations i...
The paper presents recent advances in the design of controllable, highly accurate, and multi-band Ra...
Optical communication systems are always evolving to support the need for ever-increasing transmissi...
We present a machine learning (ML) framework for designing desired signal power profiles over the sp...
An accurate, closed-form expression evaluating the nonlinear interference (NLI) power in coherent op...
We experimentally validate a real-time machine learning framework, capable of controlling the pump p...
A machine learning framework for Raman amplifier design is experimentally tested. Performance in ter...
A wide range of highly-relevant problems in programmable and integrated photonics, optical amplifica...
A multi-layer neural network is employed to learn the mapping between Raman gain profile and pump po...
An analytical model to estimate nonlinear performance in ultra-wideband optical transmission network...
To effectively operate multi-vendor disaggregated networks, performance of physical layer needs to b...
A closed-form formula is derived, which corrects for the modulation format dependence of the Gaussia...
We introduce a load aware machine learning method for prediction of Raman gain profiles. It enables ...
We propose a Convolutional Neural Network (CNN) to learn the mapping between the 2D power profiles, ...
A machine learning framework predicting pump powers and noise figure profile for a target distribute...
It has been recently demonstrated that neural networks can learn the complex pump–signal relations i...
The paper presents recent advances in the design of controllable, highly accurate, and multi-band Ra...
Optical communication systems are always evolving to support the need for ever-increasing transmissi...
We present a machine learning (ML) framework for designing desired signal power profiles over the sp...
An accurate, closed-form expression evaluating the nonlinear interference (NLI) power in coherent op...
We experimentally validate a real-time machine learning framework, capable of controlling the pump p...
A machine learning framework for Raman amplifier design is experimentally tested. Performance in ter...
A wide range of highly-relevant problems in programmable and integrated photonics, optical amplifica...
A multi-layer neural network is employed to learn the mapping between Raman gain profile and pump po...
An analytical model to estimate nonlinear performance in ultra-wideband optical transmission network...
To effectively operate multi-vendor disaggregated networks, performance of physical layer needs to b...
A closed-form formula is derived, which corrects for the modulation format dependence of the Gaussia...