Experimental Evaluation of Computational Complexity for Different Neural Network Equalizers in Optical Communications
Pedro J. Freire, Yevhenii Osadchuk, Antonio Napoli, Bernhard Spinnler,, Wolfgang Schairer, Nelson Costa, Jaroslaw E. Prilepsky, Sergei K. Turitsyn

TL;DR
This paper compares various neural network architectures for optical channel equalization, analyzing their performance versus complexity trade-offs in different fiber optic setups.
Contribution
It provides a comparative analysis of neural network architectures for optical equalizers, highlighting their performance and complexity trade-offs in TWC and SSMF scenarios.
Findings
Neural network architectures vary significantly in complexity and performance.
Trade-offs between equalizer accuracy and computational cost are quantified.
Results guide the selection of neural networks for optical communication systems.
Abstract
Addressing the neural network-based optical channel equalizers, we quantify the trade-off between their performance and complexity by carrying out the comparative analysis of several neural network architectures, presenting the results for TWC and SSMF set-ups.
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Taxonomy
TopicsOptical Network Technologies · Neural Networks and Reservoir Computing · Advanced Photonic Communication Systems
