Zhang Yufan, Li Xin, Lv Weichao, et al. Link structure of underwater wireless optical communication and progress on performance optimization[J]. Opto-Electronic Engineering, 2020, 47(9): 190734.
Home > Journal Home > Opto-Electronic Engineering
Opto-Electronic Engineering
ISSN: 1003-501X
CN: 51-1346/O4
Monthly, included in CA, Scopus, CSCD
CN: 51-1346/O4
Monthly, included in CA, Scopus, CSCD
Vol. 47, No. 9, 2020
Cover：Zhang Y F, Li X, Lv W C, et al. Link structure of underwater wireless optical communication and progress on performance optimization[J]. Opto-Electronic Engineering, 2020, 47(9): 190734
The development of the autonomous underwater vehicle (AUV) promotes exploration of the ocean.Traditional underwater communication with cables limits the flexibility of AUVs and the installation and maintenance of cables are very difficult. Underwater wireless communication (UWOC) with high bandwidth and strong anti-electromagnetic interference ability has a promising application prospect in underwater applications. However, the absorption and scattering of light signals by sea water and the complex underwater environment limit the transmission distance and communication quality of UWOC.
A review article of the research group of Professor Xu Jing from the optical communication laboratory of ocean College, Zhejiang University, first introduced some relatively representative research results of UWOC, and summarized the key technologies in these researches. Then, the basic structure of an UWOC link was introduced, and the existing technologies and research progress were analyzed from three aspects of transmitters, receivers and channel characteristics.
The development of the autonomous underwater vehicle (AUV) promotes exploration of the ocean.Traditional underwater communication with cables limits the flexibility of AUVs and the installation and maintenance of cables are very difficult. Underwater wireless communication (UWOC) with high bandwidth and strong anti-electromagnetic interference ability has a promising application prospect in underwater applications. However, the absorption and scattering of light signals by sea water and the complex underwater environment limit the transmission distance and communication quality of UWOC.
A review article of the research group of Professor Xu Jing from the optical communication laboratory of ocean College, Zhejiang University, first introduced some relatively representative research results of UWOC, and summarized the key technologies in these researches. Then, the basic structure of an UWOC link was introduced, and the existing technologies and research progress were analyzed from three aspects of transmitters, receivers and channel characteristics.
Select all:
Export Citations as:
For
Review | TN929.1
Link structure of underwater wireless optical communication and progress on performance optimization
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190734
Cite this article:
Article | TN249; TH765.2
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190049
Cite this article:
Wang Jia, Liu Yangyi, Rao Changhui. A calibration method for Lyot filter[J]. Opto-Electronic Engineering, 2020, 47(9): 190049.
Article | TJ760.6
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190438
Cite this article:
Jia Wenwu, Zhang Sanxi, Lei Tao. The consistent of laser pointing and theodolite tracking[J]. Opto-Electronic Engineering, 2020, 47(9): 190438.
Article | TH741
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190451
Cite this article:
Su Yuhao, Duan Fajie, Jiang Jiajia, et al. Research on field calibration method of straightness in five-degree-of-freedom measurement[J]. Opto-Electronic Engineering, 2020, 47(9): 190451.
Article | TN929.13
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190485
Cite this article:
Li Xiaoming, Zhang Tianshuo, Zhang Jiaqi, et al. Lateral support structure for 600 mm primary mirror of laser communication[J]. Opto-Electronic Engineering, 2020, 47(9): 190485.
Article | TN249; P111.2
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190515
Cite this article:
Li Caifeng, Jia Peng, Cai Dongmei. Optimizing the location of multiple laser guide stars in ground layer adaptive optical systems[J]. Opto-Electronic Engineering, 2020, 47(9): 190515.
Article | TN253; V241.5
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190523
Cite this article:
Lei Ming, Yu Huaiyong, Fang Yuan, et al. Research on laser frequency locking technology based on temperature and PZT control[J]. Opto-Electronic Engineering, 2020, 47(9): 190523.
Article | O472+.4
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190540
Cite this article:
Zhu Qing, Liu Yourong, Jiang Zhipeng, et al. Impedance spectroscopy characteristics of nano ZnO doped liquid crystal/polymer film[J]. Opto-Electronic Engineering, 2020, 47(9): 190540.
Article | TJ765.1
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190547
Cite this article:
Niu Shuaixu, Jiang Jing, Tang Tao, et al. Optimal design of Youla controller for vibration rejection in telescopes[J]. Opto-Electronic Engineering, 2020, 47(9): 190547.
Article | TP391.41
Online Time:Sep 17, 2020
Opto-Electronic Engineering, Vol. 47, Issue 09, pp. 190634
Cite this article:
Wang Xin, Zhang Xudong, Zhang Jun, et al. Image dehazing algorithm by combining light field multi-cues and atmospheric scattering model[J]. Opto-Electronic Engineering, 2020, 47(9): 190634.
