Design and implementation of unmanned aerial vehicle localization and light tracking system

被引:1
|
作者
Xu Ming [1 ]
Dong Chen [2 ,3 ]
Li Hanlu [4 ]
Luo Qiming [4 ]
Wang Lizi [4 ]
Zhang Wanru [4 ]
Liu Huixin [4 ]
机构
[1] School of Digital Media and Design Arts,Beijing University of Posts and Telecommunications
[2] School of Information and Communication Engineering,Beijing University of Posts and Telecommunications
[3] State Key Laboratory of Networking and Switching Technology,Beijing University of Posts and Telecommunications
[4] School of Computer Science (National Pilot Software Engineering School) ,Beijing University of Posts and Telecommunications
关键词
D O I
10.19682/j.cnki.1005-8885.2023.2017
中图分类号
V279 [无人驾驶飞机]; TP391.41 [];
学科分类号
080203 ; 1111 ;
摘要
Unmanned aerial vehicles(UAV) are applied widely and profoundly in various fields. Moreover, high-precision positioning and tracking in multiple scenarios are the core requirements for UAV usage. To ensure stable communication of UAVs in denial environments with substantial electromagnetic interference, a systematic solution is proposed based on a deep learning algorithm for target detection and visible light for UAV tracking. Considering the cost and computational power limitations on the hardware, the you only look once(YOLO)v4-Tiny model is used for static target detection of the UAV model. For UAV tracking, and a light tracker that can adjust the angle of emitted light and focus it on the target is used for dynamic tracking processing. Thus, achieving the primary conditions of UAV optical communication with good secrecy is also suitable for dynamic situations. The UAV tracker positions the UAV model by returning the coordinates and calculating the time delay, and then controls the spotlight to target the UAV. In order to facilitate the deployment of deep learning models on hardware devices, the lighter and more efficient model is selected after comparison. The trained model can achieve 99.25% accuracy on the test set. The dynamic target detection can reach 20 frames per second(FPS) on a computer with an MX520 graphics processing unit(GPU) and 6 GB of random access memory(RAM). Dynamic target detection on a Jetson Nano can reach 5.4 FPS.
引用
收藏
页码:67 / 74
页数:8
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