Jupeng Ding, Chih-Lin I, Jintao Wang, Yaping Li, Zhijun Zhang, Peng Xie, Xuerang Guo, Xifeng Chen. Recent Advances of UAV Airborne Optical Wireless Communications[J]. Laser & Optoelectronics Progress, 2020, 57(23): 230003
- Laser & Optoelectronics Progress
- Vol. 57, Issue 23, 230003 (2020)
Fig. 1. Main types of for UAV. (a) Fixed-wing UAV; (b) tilt-wing UAV; (c) unmanned helicopter; (d) multicopter
![Illustration of for UAV 5G and beyond 5G wireless optical network architecture[15]](/richHtml/lop/2020/57/23/230003/img_2.jpg)
Fig. 2. Illustration of for UAV 5G and beyond 5G wireless optical network architecture[15]
![Optical wireless communication between UAVs and ground vehicle. (a) A team of micro unmanned aerial and ground vehicles deployed to a disaster area; (b) connectivity cone C with its parameters[19]](/Images/icon/loading.gif){kind=icon}
Fig. 3. Optical wireless communication between UAVs and ground vehicle. (a) A team of micro unmanned aerial and ground vehicles deployed to a disaster area; (b) connectivity cone C with its parameters[19]
Fig. 4. BER measurement of the optical wireless link for UAVs (Terminal 1) and GCSs (Terminal 2)[24]. (a) From terminal 1 to terminal 2; (b) from terminal 2 to terminal 1
Fig. 5. A typical A2A FSO link[28]
Fig. 6. UAV swarm[31]. (a) Exchanging data with surveillance plane; (b) ring architecture; (c) star architecture; (d) meshed architecture
Fig. 7. Modular wireless optical elements and 10-module flat receiver array under test[32]
Fig. 8. Illustrations of the optical uplink, optical downlink and the Doppler effects between UAV and satellite[36]
Fig. 9. Laser communication scenarios from HAPs[36]
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Table 1. Comparison of performance & parameters for UAV airborne optical wireless links
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