Temperature effects on atmospheric continuous-variable quantum key distribution

被引:3
|
作者
Zhang, Shu-Jing [1 ]
Ma, Hong-Xin [1 ]
Wang, Xiang [1 ]
Zhou, Chun [1 ]
Bao, Wan-Su [1 ]
Zhang, Hai-Long [1 ]
机构
[1] Zhengzhou Informat Sci & Technol Inst, Henan Key Lab Quantum Informat & Cryptog, Zhengzhou 450001, Henan, Peoples R China
基金
中国国家自然科学基金;
关键词
atmospheric continuous-variable quantum key distribution; temperature effects; performance; secret key rate;
D O I
10.1088/1674-1056/28/8/080304
中图分类号
O4 [物理学];
学科分类号
0702 ;
摘要
Compared with the fiber channel, the atmospheric channel offers the possibility of a broader geographical coverage and more flexible transmission for continuous-variable quantum key distribution (CVQKD). However, the fluctuation of atmospheric conditions will lead to the loss of performance in atmospheric quantum communication. In this paper, we study how temperature affects atmospheric CVQKD. We mainly consider the temperature effects on the transmittance and interruption probability. From the numerical simulation analysis, it can be shown that the performance of atmospheric CVQKD is improved as temperature increases, with the other factors fixed. Moreover, the results in this work can be used to evaluate the feasibility of the experimental implementation of the atmospheric CVQKD protocols.
引用
收藏
页数:6
相关论文
共 50 条
  • [31] Constructal optimization of discrete and continuous-variable cross-section conducting path based on entransy dissipation rate minimization
    Wei ShuHuan
    Chen LinGen
    Sun FengRui
    SCIENCE CHINA-TECHNOLOGICAL SCIENCES, 2010, 53 (06) : 1666 - 1677
  • [32] An Improved Polar Codes-Based Key Reconciliation for Practical Quantum Key Distribution
    YAN Shiling
    WANG Jindong
    FANG Junbin
    JIANG Lin
    WANG Xuan
    Chinese Journal of Electronics, 2018, 27 (02) : 250 - 255
  • [33] An Improved Polar Codes-Based Key Reconciliation for Practical Quantum Key Distribution
    Yan Shiling
    Wang Jindong
    Fang Junbin
    Jiang Lin
    Wang Xuan
    CHINESE JOURNAL OF ELECTRONICS, 2018, 27 (02) : 250 - 255
  • [34] Channel Estimation and Secret Key Rate Analysis of MIMO Terahertz Quantum Key Distribution
    Kundu, Neel Kanth
    Dash, Soumya P.
    Mckay, Matthew R.
    Mallik, Ranjan K.
    IEEE TRANSACTIONS ON COMMUNICATIONS, 2022, 70 (05) : 3350 - 3363
  • [35] Temperature distribution in stretching/shrinking fin with variable parameters
    Sharma, Priti
    Singh, Surjan
    Upadhyay, Subrahamanyam
    HEAT TRANSFER, 2024, 53 (07) : 3625 - 3642
  • [36] Orthogonal Frequency-Division Multiplexed Quantum Key Distribution
    Bahrani, Sima
    Razavi, Mohsen
    Salehi, Jawad A.
    JOURNAL OF LIGHTWAVE TECHNOLOGY, 2015, 33 (23) : 4687 - 4698
  • [37] Modeling of pyramidal shape quantum dot infrared photodetector: the effects of temperature and quantum dot size
    Fazlalipour, Hossein
    Asgari, Asghar
    Darvish, Ghaffar
    JOURNAL OF NANOPHOTONICS, 2018, 12 (02)
  • [38] Efficient Quantum Key Distribution based on Pulse-Position Modulation
    Zhang, Yequn
    Djordjevic, Ivan B.
    Neifeld, Mark A.
    EMERGING TECHNOLOGIES IN SECURITY AND DEFENCE II AND QUANTUM-PHYSICS-BASED INFORMATION SECURITY III, 2014, 9254
  • [39] Shannon-limit approached information reconciliation for quantum key distribution
    Tang, Bang-Ying
    Liu, Bo
    Yu, Wan-Rong
    Wu, Chun-Qing
    QUANTUM INFORMATION PROCESSING, 2021, 20 (03)
  • [40] Multiple-pulse phase-matching quantum key distribution
    Chen, Gang
    Wang, Le
    Li, Wei
    Zhao, Yang
    Zhao, Shengmei
    Gruska, Jozef
    QUANTUM INFORMATION PROCESSING, 2020, 19 (11)