RL-Based USV Path Planning Under the Marine Multimodal Features Considerations

Path planning is an important step in ensuring the safety of unmanned surface vehicle (USV) navigation and executing missions quickly and efficiently. However, current USV path planning methods lack comprehensive consideration of electronic nautical charts and meteorological data, resulting in planned paths being unable to fully utilize marine environmental conditions, which may easily lead to collisions and long navigation times. Based on the above considerations, our study designs a USV path planning system that comprehensively considers the multimodal information from electronic nautical charts and meteorological data. The system consists of three parts: 1) the image processing module; 2) the meteorological analysis module; and 3) the path planning module. In detail, the image processing module obtains the geographical feature information from the electronic chart and constructs a static obstacle environment. The meteorological analysis module obtains the meteorological feature information from meteorological data and constructs a dynamic meteorological vector field environment. The path planning module introduces a designed double deep Q-Network (DQN) structure, a multivariate weighted Dueling network, and a priority sampling mechanism to enhance the DQN algorithm for promising performance in USV path planning. Extensive experiments illustrate the superior performance of the proposed fusion DQN algorithm. Furthermore, the feasibility of the entire path planning system is confirmed.

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Publication Details

Journal
IEEE Internet of Things Journal
Published
2025-01-16
DOI
https://doi.org/10.1109/jiot.2025.3530534
Citations
14
Primary Topic
Robotic Path Planning Algorithms
Type
article
Field-Weighted Citation Impact
17.86
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article

RL-Based USV Path Planning Under the Marine Multimodal Features Considerations

Huaxing Gou, Poly Z. H. Sun, Tienyu Zuo, Xin Wang et al.
14 citations
IEEE Internet of Things Journal
Robotic Path Planning Algorithms
17.86
article

RL-Based USV Path Planning Under the Marine Multimodal Features Considerations

Huaxing Gou, Poly Z. H. Sun, Tienyu Zuo, Xin Wang, Hanzhong Zhang, Quanbao Lin, Peidong Tian
article en
14 citations

Abstract

Path planning is an important step in ensuring the safety of unmanned surface vehicle (USV) navigation and executing missions quickly and efficiently. However, current USV path planning methods lack comprehensive consideration of electronic nautical charts and meteorological data, resulting in planned paths being unable to fully utilize marine environmental conditions, which may easily lead to collisions and long navigation times. Based on the above considerations, our study designs a USV path planning system that comprehensively considers the multimodal information from electronic nautical charts and meteorological data. The system consists of three parts: 1) the image processing module; 2) the meteorological analysis module; and 3) the path planning module. In detail, the image processing module obtains the geographical feature information from the electronic chart and constructs a static obstacle environment. The meteorological analysis module obtains the meteorological feature information from meteorological data and constructs a dynamic meteorological vector field environment. The path planning module introduces a designed double deep Q-Network (DQN) structure, a multivariate weighted Dueling network, and a priority sampling mechanism to enhance the DQN algorithm for promising performance in USV path planning. Extensive experiments illustrate the superior performance of the proposed fusion DQN algorithm. Furthermore, the feasibility of the entire path planning system is confirmed.

IEEE Internet of Things JournalVol. 12(11)
Shanghai University (CN), Shanghai Jiao Tong University (CN), Chinese Academy of Sciences (CN), Shenzhen Institutes of Advanced Technology (CN), East China Normal University (CN), Southeast University (CN)
Life below water
Openalex Percentile: Top 1%
Robotic Path Planning Algorithms
17.86
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