Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Quantum Information Processing

Physical-layer security analysis of PSK quantum-noise randomized cipher in optically amplified links

Haisong Jiao, Tao Pu, Xiang Peng, Jilin Zheng, Tao Fang, Huatao Zhu

Published Jun 20, 2017• 13 citations
Publisher
DOI
10.1007/s11128-017-1637-4

Related papers

Physical-layer security analysis of a quantum noise randomized cipher assisted by chaos masking

Ning Xiao, Shuai Shi, Hong Wei Ouyang +1 more

Optical Fiber Technology•Apr 18, 2023•5 citations

Physical-Layer Security Analysis of a Quantum Noise Randomized Cipher Assisted by Chaos Masking

Shuai Shi, Ning Xiao, Hong Ouyang +1 more

•Jan 1, 2022•0 citations

Performance analysis of physical-layer security in ISK quantum-noise randomized cipher based on wiretap channel

Yeteng Tan, Tao Pu, Hua Ren Zhou +2 more

Optics Communications•Dec 23, 2019•8 citations

Quantum Noise Stream Cipher of Optical Communication in Physical Layer Security

马乐 Ma Le, 张杰 Zhang Jie, 王博 Wang Bo +6 more

Laser & Optoelectronics Progress•Jan 1, 2020•1 citation

Diffusion-assisted quantum noise stream cipher for physical layer security in UFMC

Yinbo Xu, Mingyi Gao, Yang Fei +2 more

Optics & Laser Technology•Dec 9, 2023•7 citations

A Novel Realization of PSK Quantum-noise Randomized Cipher System Based on Series Structure of Multiple Phase Modulators

Yeteng Tan, Tao Pu, Jilin Zheng +3 more

Quantum-Noise Randomized Cipher (QNRC) is a potentially information-theoretic secure physical-layer encryption method for high-speed and long-distance fiber communications. In order to solve the problem that the modulation and demodulation of M-ary Y-00 ciphertext signal in QNRC system are limited by the ADC chip with high sampling rate and high conversion depth, a novel realization of PSK-QNRC system based on series structure of multiple phase modulators (PM) is proposed, and the performances of the proposed scheme is verified by using commercial simulation software in this paper. The simulation results show that, the 126-PSK QNRC system at 10 Gbit/s over 1000-km optically amplified links is realized based on the series structure of multiple PM. Reducing the mesoscopic power of the ciphertext quantum state can improve the security level of QNRC system, but it will damage the transmission performance of the system at the same time. It is very important to select the appropriate mesoscopic power to optimize the security and reliability of QNRC system.

International Conference on Wireless Communications and Signal Processing (WCSP)•Oct 21, 2020•3 citations
Quantum-Noise Randomized Cipher (QNRC) is a potentially information-theoretic secure physical-layer encryption method for high-speed and long-distance fiber communications. In order to solve the problem that the modulation and demodulation of M-ary Y-00 ciphertext signal in QNRC system are limited by the ADC chip with high sampling rate and high conversion depth, a novel realization of PSK-QNRC system based on series structure of multiple phase modulators (PM) is proposed, and the performances of the proposed scheme is verified by using commercial simulation software in this paper. The simulation results show that, the 126-PSK QNRC system at 10 Gbit/s over 1000-km optically amplified links is realized based on the series structure of multiple PM. Reducing the mesoscopic power of the ciphertext quantum state can improve the security level of QNRC system, but it will damage the transmission performance of the system at the same time. It is very important to select the appropriate mesoscopic power to optimize the security and reliability of QNRC system.