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Bibliographic Details
Main Authors: Agrell, Erik, Secondini, Marco, Alvarado, Alex, Yoshida, Tsuyoshi
Format: Preprint
Published: 2021
Subjects:
Online Access:https://arxiv.org/abs/2102.10139
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author Agrell, Erik
Secondini, Marco
Alvarado, Alex
Yoshida, Tsuyoshi
author_facet Agrell, Erik
Secondini, Marco
Alvarado, Alex
Yoshida, Tsuyoshi
contents Although forward error-correction (FEC) coding is an essential part of modern fiber-optic communication systems, it is impractical to implement and evaluate FEC in transmission experiments and simulations. Therefore, it is desirable to accurately predict the end-to-end link performance including FEC from transmission data recorded without FEC. In this tutorial, we provide ready-to-implement "recipes" for such prediction techniques, which apply to arbitrary channels and require no knowledge of information or coding theory. The appropriate choice of recipe depends on properties of the FEC encoder and decoder. The covered metrics include bit error rate, symbol error rate, achievable information rate, and asymptotic information, in all cases computed using a mismatched receiver. Supplementary software implementations are available.
format Preprint
id arxiv_https___arxiv_org_abs_2102_10139
institution arXiv
publishDate 2021
record_format arxiv
spellingShingle Performance Prediction Recipes for Optical Links
Agrell, Erik
Secondini, Marco
Alvarado, Alex
Yoshida, Tsuyoshi
Information Theory
Although forward error-correction (FEC) coding is an essential part of modern fiber-optic communication systems, it is impractical to implement and evaluate FEC in transmission experiments and simulations. Therefore, it is desirable to accurately predict the end-to-end link performance including FEC from transmission data recorded without FEC. In this tutorial, we provide ready-to-implement "recipes" for such prediction techniques, which apply to arbitrary channels and require no knowledge of information or coding theory. The appropriate choice of recipe depends on properties of the FEC encoder and decoder. The covered metrics include bit error rate, symbol error rate, achievable information rate, and asymptotic information, in all cases computed using a mismatched receiver. Supplementary software implementations are available.
title Performance Prediction Recipes for Optical Links
topic Information Theory
url https://arxiv.org/abs/2102.10139