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UAV deployment with grid modeling and adaptive multiple pruning search in complex forest scenarios

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Abstract

Nowadays, unmanned aerial vehicles (UAVs) have achieved rapid development due to their flexible flight modes and broad application prospects, which have played an important role in scenarios such as aerial photography, unmanned map**, agricultural plant protection, and power inspection. At the same time, as the frequency of global forest fires is increasing year by year, traditional monitoring and search and rescue methods have little effect. People have begun to consider the introduction of UAVs for forest monitoring and disaster relief. However, in practical applications, when a single UAV performs tasks, there are problems of limited energy, poor robustness, and easy failures that affect the execution efficiency of global tasks. Therefore, it is necessary to obtain the deployment plan of the UAVs offline in advance, and then fine-tune the position of the UAVs online. This paper focuses on the solution of UAV deployment model offline. In complex forest scenarios, due to terrain and signal coverage issues, we need to optimize this when deploying UAVs. At the same time, our goal is to find the location of deployable UAVs in the forest area to maximize the global coverage area of UAVs. Therefore, we divide the forest areas where UAVs need to be deployed and perform a grid modeling on them. On the basis of grid modeling, an Adaptive Multiple Pruning Search Method (AMPSM) is proposed to solve the global UAV deployment and maximum coverage area. In our experiments, we conducted a comparative analysis with the geometric solution to solve the maximum coverage area, which proved the feasibility of the model and the method. The results show that in the complex forest environment, our research can meet the requirements to a great extent, which can be extended to more application scenarios.

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Correspondence to Wei Gu.

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Wang, T., Gu, W. UAV deployment with grid modeling and adaptive multiple pruning search in complex forest scenarios. Wireless Netw 30, 3871–3883 (2024). https://doi.org/10.1007/s11276-021-02777-x

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