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Phase Masking and Time-Frequency Chaotic Encryption for DFMA-PON

We propose a novel physical layer security-enhanced digital filter multiple access-based passive optical network (DFMA-PON), for the first time to our best knowledge, by using phase masking and hybrid time-frequency domain chaotic scrambling. In the proposed secure DFMA-PON, all digital orthogonal f...

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Published in:IEEE photonics journal 2018-08, Vol.10 (4), p.1-9
Main Authors: Zhang, Chongfu, Yan, Yangyang, Wu, Tingwei, Zhang, Xiaoling, Wen, Guangjun, Qiu, Kun
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Language:English
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cited_by cdi_FETCH-LOGICAL-c405t-2f65f44c68dd5345f151b71a6fa2439e2052f2a2eb0dda05d22d66437803ef13
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container_title IEEE photonics journal
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creator Zhang, Chongfu
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Qiu, Kun
description We propose a novel physical layer security-enhanced digital filter multiple access-based passive optical network (DFMA-PON), for the first time to our best knowledge, by using phase masking and hybrid time-frequency domain chaotic scrambling. In the proposed secure DFMA-PON, all digital orthogonal filters have different random phase and the random phase is controlled by a hyperchaotic Chen system. The hyperchaotic Chen system is also adopted for the generation of scrambling matrices. In our demonstration, an encrypted signal has been experimentally transmitted over a 25-km standard single mode fiber in an intensity modulation/direct-detection DFMA-PON system. The experimental results verify that various attacks can be effectively prevented and indicate the proposed scheme as a promising solution for physical layer secure DFMA-PON systems.
doi_str_mv 10.1109/JPHOT.2018.2852299
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source IEEE Open Access Journals
subjects Chaotic communication
digital filter multiple access
Digital filters
Encryption
intensity modulation/direct-detection
Masking
OFDM
Optical communication
Optical filters
Optical network units
Optical wireless
Phase masking
physical layer
Scrambling (communication)
Time-frequency analysis
title Phase Masking and Time-Frequency Chaotic Encryption for DFMA-PON
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