Study on risk of ship collision in bridge life-cycle based on synergetic theory

Studies on the risk of ship–bridge collisions have always been a significant subject in academic research. However, the study of ship–bridge collision risk is rarely mentioned from the perspective of the bridge life-cycle. This study proposes the concept of “bridge–ship common safety” based on the s...

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Published inOcean engineering Vol. 289; p. 116148
Main Authors Liu, Yihua, Guo, Xin
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 01.12.2023
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Abstract Studies on the risk of ship–bridge collisions have always been a significant subject in academic research. However, the study of ship–bridge collision risk is rarely mentioned from the perspective of the bridge life-cycle. This study proposes the concept of “bridge–ship common safety” based on the synergetic theory and constructed a high-level cooperative platform to solve the problem of bridge–ship collisions. This work analyzed the interaction between the subsystems of environment, ship and bridge. In this paper, a method for analyzing the ship–bridge collision risk is proposed based on synergetic theory with order parameters, including ship–bridge collision probability and the bridge's collapse probability. The Lanjiang Xiangnv Bridge project was taken as the background for this study. The bridge risk was evaluated by utilizing order parameters and synergetic degrees. The results show that the model can reflect the risk of ship–bridge collision, with a high level of scientific significance and academic value, enriching the bridge-collision prevention theory and implementing the concept of "bridge–ship common safety". •Analyzed the interaction relationships among environment, ship and bridge.•Calculated the ship impact risk in bridge life-cycle.•Reconstituted range of risk criteria.
AbstractList Studies on the risk of ship–bridge collisions have always been a significant subject in academic research. However, the study of ship–bridge collision risk is rarely mentioned from the perspective of the bridge life-cycle. This study proposes the concept of “bridge–ship common safety” based on the synergetic theory and constructed a high-level cooperative platform to solve the problem of bridge–ship collisions. This work analyzed the interaction between the subsystems of environment, ship and bridge. In this paper, a method for analyzing the ship–bridge collision risk is proposed based on synergetic theory with order parameters, including ship–bridge collision probability and the bridge's collapse probability. The Lanjiang Xiangnv Bridge project was taken as the background for this study. The bridge risk was evaluated by utilizing order parameters and synergetic degrees. The results show that the model can reflect the risk of ship–bridge collision, with a high level of scientific significance and academic value, enriching the bridge-collision prevention theory and implementing the concept of "bridge–ship common safety". •Analyzed the interaction relationships among environment, ship and bridge.•Calculated the ship impact risk in bridge life-cycle.•Reconstituted range of risk criteria.
ArticleNumber 116148
Author Liu, Yihua
Guo, Xin
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  givenname: Yihua
  orcidid: 0000-0002-8823-9555
  surname: Liu
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  email: liuyh@shmtu.edu.cn
  organization: Merchant Marine College, Shanghai Maritime University, Shanghai, 201306, China
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  givenname: Xin
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  surname: Guo
  fullname: Guo, Xin
  email: xguo_edu@163.com
  organization: Merchant Marine College, Shanghai Maritime University, Shanghai, 201306, China
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Keywords Bridge life-cycle
Risk
Order parameters
Synergetic theory
Ship–bridge collision
Language English
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Snippet Studies on the risk of ship–bridge collisions have always been a significant subject in academic research. However, the study of ship–bridge collision risk is...
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StartPage 116148
SubjectTerms Bridge life-cycle
Order parameters
Risk
Ship–bridge collision
Synergetic theory
Title Study on risk of ship collision in bridge life-cycle based on synergetic theory
URI https://dx.doi.org/10.1016/j.oceaneng.2023.116148
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