Enhanced Air–Ground Coordination with the HUCC-MAPPO Algorithm for Improved Multi-UAV Reconnaissance Efficiency

A novel air–ground coordination (AGC) system is developed, integrating multi-agent proximal policy optimization (MAPPO) with Voronoi diagram-based path planning to revolutionize task allocation and execution in complex environments. This advanced approach significantly enhances the efficiency and precision of coordination between unmanned aerial vehicles (UAVs) and ground operators, ensuring superior mission performance. Key improvements of the proposed system include adaptive task allocation and Voronoi diagram-based path planning, which effectively optimize task area coverage and mission execution. In simulations, the HUCC-MAPPO algorithm demonstrates exceptional improvements in simulation, surpassing conventional methods in task coverage, mission efficiency, and obstacle avoidance. Specific experimental results show significant enhancements in task area coverage by 15%, reduction in path lengths by 12% and an increase in task completion rates by 18% compared to baseline methods. These results highlight its strong potential for real-world applications, particularly in multi-UAV reconnaissance missions where precise and dynamic coordination is crucial.

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Publication Details

Journal
Unmanned Systems
Published
2025-01-29
DOI
https://doi.org/10.1142/s2301385026410013
Primary Topic
Military Defense Systems Analysis
Type
article
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article

Enhanced Air–Ground Coordination with the HUCC-MAPPO Algorithm for Improved Multi-UAV Reconnaissance Efficiency

Zhengyang Cao, Gang Chen
Unmanned Systems
Military Defense Systems Analysis
article

Enhanced Air–Ground Coordination with the HUCC-MAPPO Algorithm for Improved Multi-UAV Reconnaissance Efficiency

Zhengyang Cao, Gang Chen
article en

Abstract

A novel air–ground coordination (AGC) system is developed, integrating multi-agent proximal policy optimization (MAPPO) with Voronoi diagram-based path planning to revolutionize task allocation and execution in complex environments. This advanced approach significantly enhances the efficiency and precision of coordination between unmanned aerial vehicles (UAVs) and ground operators, ensuring superior mission performance. Key improvements of the proposed system include adaptive task allocation and Voronoi diagram-based path planning, which effectively optimize task area coverage and mission execution. In simulations, the HUCC-MAPPO algorithm demonstrates exceptional improvements in simulation, surpassing conventional methods in task coverage, mission efficiency, and obstacle avoidance. Specific experimental results show significant enhancements in task area coverage by 15%, reduction in path lengths by 12% and an increase in task completion rates by 18% compared to baseline methods. These results highlight its strong potential for real-world applications, particularly in multi-UAV reconnaissance missions where precise and dynamic coordination is crucial.

Unmanned SystemsVol. 14(02)
Av Engineering (Czechia) (CZ), Xi'an Jiaotong University (CN)
Affordable and clean energy
Openalex Percentile: Top 98%
Military Defense Systems Analysis
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Enhanced Air–Ground Coordination with the HUCC-MAPPO Algorithm for Improved Multi-UAV Reconnaissance Efficiency — Zhengyang Cao, Gang Chen · Unmanned Systems (2025) | TGRS Research Map | TGRS