CORTEXA
← Browse
crossrefJournal of Marine Science and Engineering2025-04-24Cited by 6

Navigation and Obstacle Avoidance for USV in Autonomous Buoy Inspection: A Deep Reinforcement Learning Approach

Jianhui Wang, Zhiqiang Lu, Xunjie Hong, Zeye Wu, Weihua Li

To address the challenges of manual buoy inspection, this study enhances a previously proposed Unmanned Surface Vehicle (USV) inspection system by improving its navigation and obstacle avoidance capabilities using Proximal Policy Optimization (PPO). For improved usability, the entire system adopts a fully end-to-end design, with an angular deviation weighting mechanism for stable circular navigation, a novel image-based radar encoding technique for obstacle perception and a decoupled navigation and obstacle avoidance architecture that splits the complex task into three independently trained modules. Experiments validate that both navigation modules exhibit robustness and generalization capabilities, while the obstacle avoidance module partially achieves International Regulations for Preventing Collisions at Sea (COLREGs)-compliant maneuvers. Further tests in continuous multi-buoy inspection tasks confirm the architecture’s effectiveness in integrating these modules to complete the full task.

View free PDFSource page

Related papers

crossrefJournal of Marine Science and Engineering2025-12-11Cited by 3

Three-Dimensional Autonomous Navigation of Unmanned Underwater Vehicle Based on Deep Reinforcement Learning and Adaptive Line-of-Sight Guidance

Jianya Yuan, Hongjian Wang, Bo Zhong, Chengfeng Li, Yutong Huang, Shaozheng Song

Unmanned underwater vehicles (UUVs) face significant challenges in achieving safe and efficient autonomous navigation in complex marine environments due to uncertain perception, dynamic obstacles, and nonlinear coupled motion control. This study proposes a hierarchical autonomous…

View free PDFSource page
crossrefJournal of Marine Science and Engineering2026-02-25Cited by 1

Autonomous Navigation of an Unmanned Underwater Vehicle via Safe Reinforcement Learning and Active Disturbance Rejection Control

Qinze Chen, Yun Cheng, Yinlong Yuan, Liang Hua

A two-layer control framework for unmanned underwater vehicle (UUV) navigation is proposed, combining a lower-layer active disturbance rejection controller (ADRC) with an upper-layer safe reinforcement learning (RL) policy for obstacle-avoidance navigation. The lower layer, utili…

View free PDFSource page
crossrefJournal of Marine Science and Engineering2025-11-06Cited by 2

Autonomous Navigation Control and Collision Avoidance Decision-Making of an Under-Actuated ASV Based on Deep Reinforcement Learning

Yiting Wang, Zhiyao Li, Lei Wang, Xuefeng Wang

For efficient and safe navigation for an autonomous surface vehicle (ASV), this paper proposes an autonomous navigation behavior framework that integrates deep reinforcement learning (DRL) to achieve autonomous decision-making and low-level control actions in path following and c…

View free PDFSource page
crossrefJournal of Marine Science and Engineering2023-09-09Cited by 17

A Deep Reinforcement Learning-Based Path-Following Control Scheme for an Uncertain Under-Actuated Autonomous Marine Vehicle

Xingru Qu, Yuze Jiang, Rubo Zhang, Feifei Long

In this article, a deep reinforcement learning-based path-following control scheme is established for an under-actuated autonomous marine vehicle (AMV) in the presence of model uncertainties and unknown marine environment disturbances is presented. By virtue of light-of-sight gui…

View free PDFSource page
crossrefJournal of Marine Science and Engineering2025-01-22Cited by 7

Study on the Multi-Equipment Integrated Scheduling Problem of a U-Shaped Automated Container Terminal Based on Graph Neural Network and Deep Reinforcement Learning

Qinglei Zhang, Yi Zhu, Jiyun Qin, Jianguo Duan, Ying Zhou, Huaixia Shi, et al.

Intelligent Guided Vehicles (IGVs) in U-shaped automated container terminals (ACTs) have longer travel paths than those in conventional vertical layout ACTs, and their interactions with double trolley quay cranes (DTQCs) and double cantilever rail cranes (DCRCs) are more frequent…

View free PDFSource page
crossrefJournal of Marine Science and Engineering2026-06-05

Multi-Source Sensor Fusion Localization Method for Autonomous Underwater Vehicles Based on Deep Learning

Xin Pan, Guoli Feng, Haiyan Zeng, Qunhong Tian

Autonomous Underwater Vehicles (AUVs) are increasingly used in deep-sea exploration, environmental monitoring, and marine engineering. Their operational safety and mission performance rely heavily on accurate and long-endurance underwater localization. However, both single-sensor…

View free PDFSource page