Effects of Tropospheric Turbulence on Radio Signal Data Passing Atmospheric Communication Links

被引:0
|
作者
Bronfman, I. [1 ]
Ben-Shimol, Y. [1 ]
Blaunstein, N. [1 ]
机构
[1] Ben Gurion Univ Negev, Sch Elect & Comp Engn, Beer Sheva, Israel
关键词
atmospheric communication channel; channel capacity; spectral efficiency; BER; scintillation; SCINTILLATION; LAYER;
D O I
10.1029/2023RS007895
中图分类号
P1 [天文学];
学科分类号
0704 ;
摘要
This paper analyzes the effects of turbulent structures of different sizes on the structural parameter of the refractive index and, consequently, on the scintillation index of radio waves passing through atmospheric channels with fading. The relationships between these parameters are analyzed and discussed not only for weak turbulence, but also for moderate and strong turbulences occurring in the mid-latitude troposphere. By using the relationship between the scintillation index of signal intensity and the well-known Rician K $K$ parameter of fast fading, and by obtaining the relationships between the signal data stream parameters, capacity, spectral efficiency, and bit error rate, and K $K$ factor of fast fading, we have numerically analyzed various cases of data transmission over tropospheric communication links with fading. This analysis considers the effects of weak, moderate, and strong turbulence on the quality of data transmission over such communication links. The results of this study can be used to improve the design and performance of tropospheric communication links in the presence of turbulence.
引用
收藏
页数:19
相关论文
共 50 条
  • [41] EFFECTS OF ATMOSPHERIC-TURBULENCE ON AN OPTICAL COMMUNICATION-SYSTEM USING A RECEIVER WITH MEMORY
    PHILLIPS, RL
    ANDREWS, LC
    APPLIED OPTICS, 1983, 22 (23): : 3833 - 3836
  • [42] Fading effects due to scintillation caused by atmospheric turbulence in a wireless optical communication link
    Halbing, RD
    Hershberger, CR
    Stalder, JA
    Andrews, LC
    Phillips, RL
    FREE-SPACE LASER COMMUNICATION AND ACTIVE LASER ILLUMINATION III, 2004, 5160 : 33 - 43
  • [43] Atmospheric turbulence effects measured along horizontal-path optical retro-reflector links
    Mahon, Rita
    Moore, Christopher I.
    Ferraro, Mike
    Rabinovich, William S.
    Suite, Michele R.
    APPLIED OPTICS, 2012, 51 (25) : 6147 - 6158
  • [44] Propagation effects and choice of radio signal bandwidth for spread spectrum cellular communication
    Kurskii, VN
    Proklov, VV
    IEEE ISSSTA '96 - IEEE FOURTH INTERNATIONAL SYMPOSIUM ON SPREAD SPECTRUM TECHNIQUES & APPLICATIONS, PROCEEDINGS, VOLS 1-3, 1996, : 98 - 101
  • [45] Experimental measurement of the atmospheric turbulence effects and their influence on performance of fully photonic wireless communication receiver
    Barcik, P.
    Wilfert, O.
    Dobesch, A.
    Kolka, Z.
    Hudcova, L.
    Novak, M.
    Leitgeb, E.
    PHYSICAL COMMUNICATION, 2018, 31 : 212 - 217
  • [46] Effects of atmospheric weather and turbulence in MSK based FSO communication system for last mile users
    Debanjan Sarkar
    Sanjeev Kumar Metya
    Telecommunication Systems, 2020, 73 : 87 - 93
  • [47] Performance of free space optical communication with combined effects from atmospheric turbulence and pointing errors
    Han, Liqiang
    You, Yahui
    Guangxue Xuebao/Acta Optica Sinica, 2014, 34 (11):
  • [48] A Study on Atmospheric Turbulence Effects in Full-Optical Free-Space Communication Systems
    Wu, Xueying
    Liu, Peng
    Matsumoto, Mitsuji
    2010 6TH INTERNATIONAL CONFERENCE ON WIRELESS COMMUNICATIONS NETWORKING AND MOBILE COMPUTING (WICOM), 2010,
  • [49] Effects of atmospheric weather and turbulence in MSK based FSO communication system for last mile users
    Sarkar, Debanjan
    Metya, Sanjeev Kumar
    TELECOMMUNICATION SYSTEMS, 2020, 73 (01) : 87 - 93
  • [50] Modeling and Measurement of Effects of Atmospheric Turbulence and Platform Jitter on Free-space Laser Communication
    Liu, Zhao
    Nikulin, Vladimir V.
    Khandekar, Rahul
    FREE-SPACE LASER COMMUNICATION TECHNOLOGIES XXII, 2010, 7587