• Laser & Optoelectronics Progress
  • Vol. 60, Issue 15, 1506006 (2023)
Taifei Zhao1,2,*, Yi Zhao1, Yang Liu1, and Wen Zhang1
Author Affiliations
  • 1Faculty of Automation and Information Engineering, Xi'an University of Technology, Xi'an 710048, Shaanxi, China
  • 2Shaanxi Civil-Military Integration Key Laboratory of Intelligence Collaborative Networks, Xi'an 710000, Shaanxi, China
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    DOI: 10.3788/LOP222071 Cite this Article Set citation alerts
    Taifei Zhao, Yi Zhao, Yang Liu, Wen Zhang. Ultraviolet Unmanned Aerial Vehicle Alliance Round-Up Algorithm Collaborative Formation[J]. Laser & Optoelectronics Progress, 2023, 60(15): 1506006 Copy Citation Text show less
    Non-line-of sight-scattering communication model
    Fig. 1. Non-line-of sight-scattering communication model
    Schematic diagram of hemispherical UV LED communication model
    Fig. 2. Schematic diagram of hemispherical UV LED communication model
    Structure diagram of the alliance
    Fig. 3. Structure diagram of the alliance
    Area minimization strategy flowchart. (a) Global area minimization policy block diagram; (b) local area minimization policy block diagram
    Fig. 4. Area minimization strategy flowchart. (a) Global area minimization policy block diagram; (b) local area minimization policy block diagram
    Flowchart of area minimization strategies generated based on federation
    Fig. 5. Flowchart of area minimization strategies generated based on federation
    Simulation results of UAV formation rounding up target escapees in two-dimensional space. (a) Without alliance (19th iteration); (b) without alliance (27th iteration); (c) with alliance (19th iteration); (d) with alliance (27th iteration)
    Fig. 6. Simulation results of UAV formation rounding up target escapees in two-dimensional space. (a) Without alliance (19th iteration); (b) without alliance (27th iteration); (c) with alliance (19th iteration); (d) with alliance (27th iteration)
    Simulation result of UAV formation rounding up target escapees in three-dimensional space. (a) Without alliance (11th iteration); (b) without alliance (30th iteration); (c) with alliance (11th iteration); (d) with alliance (30th iteration)
    Fig. 7. Simulation result of UAV formation rounding up target escapees in three-dimensional space. (a) Without alliance (11th iteration); (b) without alliance (30th iteration); (c) with alliance (11th iteration); (d) with alliance (30th iteration)
    Energy consumption of UAV formation rounding up target. (a) Two-dimensional; (b) three-dimensional
    Fig. 8. Energy consumption of UAV formation rounding up target. (a) Two-dimensional; (b) three-dimensional
    Number of iterations of the successful round-up target by the UAV formation. (a) Two-dimensional; (b) three-dimensional
    Fig. 9. Number of iterations of the successful round-up target by the UAV formation. (a) Two-dimensional; (b) three-dimensional
    Minimum distance between the target escapee and all UAV formation, when ratio of pursuer number to target number is different in two-dimensional space. (a) 8∶3; (b) 9∶3; (c) 10∶3
    Fig. 10. Minimum distance between the target escapee and all UAV formation, when ratio of pursuer number to target number is different in two-dimensional space. (a) 8∶3; (b) 9∶3; (c) 10∶3
    Minimum distance between the target escapee and all UAV formation, when ratio of pursuer number to target number is different in three-dimensional space. (a) 8∶2; (b) 9∶2; (c) 10∶2
    Fig. 11. Minimum distance between the target escapee and all UAV formation, when ratio of pursuer number to target number is different in three-dimensional space. (a) 8∶2; (b) 9∶2; (c) 10∶2
    Taifei Zhao, Yi Zhao, Yang Liu, Wen Zhang. Ultraviolet Unmanned Aerial Vehicle Alliance Round-Up Algorithm Collaborative Formation[J]. Laser & Optoelectronics Progress, 2023, 60(15): 1506006
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