A dynamic collision avoidance solution scheme of unmanned surface vessels based on proactive velocity obstacle and set-based guidance

This paper proposes a proactive velocity obstacle (PVO) method through pre-judging whether there are collision risks between an unmanned surface vessel (USV) and its obstacle vessels according to the predicted motion states of the USV by its motion mathematical model to optimize the collision avoida...

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Published inOcean engineering Vol. 248; p. 110794
Main Authors Wenming, Wang, Jialu, Du, Yihan, Tao
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 15.03.2022
Subjects
Online AccessGet full text
ISSN0029-8018
1873-5258
DOI10.1016/j.oceaneng.2022.110794

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Abstract This paper proposes a proactive velocity obstacle (PVO) method through pre-judging whether there are collision risks between an unmanned surface vessel (USV) and its obstacle vessels according to the predicted motion states of the USV by its motion mathematical model to optimize the collision avoidance decision-making. Then integrating the proposed PVO method and the line of sight (LOS) algorithm into the set-based guidance (SBG) framework, we create a dynamic collision avoidance (DCA) solution scheme of USVs and carry out simulations in the cases of single vessel and multiple vessels encounter, respectively. The USV-DCA solution scheme can make the USV successfully avoid obstacle vessels while complying with the international regulations for preventing collisions at sea (COLREGs) and follow the desired path without collisions. The simulation results show that the USV-DCA solution scheme based on PVO and SBG can make USVs avert a series of small velocity changes and make a safer collision avoidance decision than the original SBG framework scheme in the multiple vessels encounter case, which verifies the effectiveness and superiority of our proposed USV-DCA solution scheme. •Propose the PVO method to optimize the collision avoidance decision-making.•Create a USV-DCA solution scheme by integrating the PVO method and the LOS method into the SBG framework.•USV-DCA makes the USV avert a series of small velocity changes and makes a safer collision avoidance decision.•USV-DCA makes the USV follow the desired path without collision while complying with COLREGs.
AbstractList This paper proposes a proactive velocity obstacle (PVO) method through pre-judging whether there are collision risks between an unmanned surface vessel (USV) and its obstacle vessels according to the predicted motion states of the USV by its motion mathematical model to optimize the collision avoidance decision-making. Then integrating the proposed PVO method and the line of sight (LOS) algorithm into the set-based guidance (SBG) framework, we create a dynamic collision avoidance (DCA) solution scheme of USVs and carry out simulations in the cases of single vessel and multiple vessels encounter, respectively. The USV-DCA solution scheme can make the USV successfully avoid obstacle vessels while complying with the international regulations for preventing collisions at sea (COLREGs) and follow the desired path without collisions. The simulation results show that the USV-DCA solution scheme based on PVO and SBG can make USVs avert a series of small velocity changes and make a safer collision avoidance decision than the original SBG framework scheme in the multiple vessels encounter case, which verifies the effectiveness and superiority of our proposed USV-DCA solution scheme. •Propose the PVO method to optimize the collision avoidance decision-making.•Create a USV-DCA solution scheme by integrating the PVO method and the LOS method into the SBG framework.•USV-DCA makes the USV avert a series of small velocity changes and makes a safer collision avoidance decision.•USV-DCA makes the USV follow the desired path without collision while complying with COLREGs.
ArticleNumber 110794
Author Jialu, Du
Yihan, Tao
Wenming, Wang
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  organization: School of Marine Electrical Engineering, Dalian Maritime University, Dalian, 116000, China
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Keywords COLREGs
LOS method
Set-based guidance
Unmanned surface vessel
Proactive velocity obstacle
Dynamic collision avoidance
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Snippet This paper proposes a proactive velocity obstacle (PVO) method through pre-judging whether there are collision risks between an unmanned surface vessel (USV)...
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StartPage 110794
SubjectTerms COLREGs
Dynamic collision avoidance
LOS method
Proactive velocity obstacle
Set-based guidance
Unmanned surface vessel
Title A dynamic collision avoidance solution scheme of unmanned surface vessels based on proactive velocity obstacle and set-based guidance
URI https://dx.doi.org/10.1016/j.oceaneng.2022.110794
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