Time-variant structural damage risk analysis by state-of-the-art Gaidai multivariate structural safety method and novel order statistics extrapolation scheme for Panamax cargo vessel deck panel stresses

Abstract Safety of modern cargo ship transportation is essential to the world trade. For the contemporary medium-to-large cargo fleet, it is essential to develop high-fidelity risk analysis and reliability concepts, particularly for analysing onboard-recorded datasets when available. Existing structural reliability and structural damage risk analysis techniques are often unsuitable for high-dimensional dynamic transportation systems with nonlinear intercorrelations among key parts or dimensions. This case study used onboard-measured datasets to characterise hotspot stresses in the container ship’s deck panels and hull during its transatlantic voyages. Structural damage and container loss risks increase with excessive vessel motion or fatigue cracks in deck panels. Vessel dynamics is multimodal, highly nonlinear and nonstationary; hence, full-scale onboard physical measurements take priority over numerical simulations and scaled laboratory tests, including towing-tank tests. Onboard data recorded during transatlantic voyages in occasionally adverse ocean conditions offer unique insights into the operational dynamics of the laden 4400 TEU container ship.

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Publication Details

Journal
Journal of Navigation
Published
2026-11-09
DOI
https://doi.org/10.1017/s0373463326101805
Primary Topic
Structural Integrity and Reliability Analysis
Type
article
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article

Time-variant structural damage risk analysis by state-of-the-art Gaidai multivariate structural safety method and novel order statistics extrapolation scheme for Panamax cargo vessel deck panel stresses

Oleg Gaidai, Tao Zhang, Wei Zhang, Antoine Dembadouno et al.
Journal of Navigation
Structural Integrity and Reliability Analysis
article

Time-variant structural damage risk analysis by state-of-the-art Gaidai multivariate structural safety method and novel order statistics extrapolation scheme for Panamax cargo vessel deck panel stresses

Oleg Gaidai, Tao Zhang, Wei Zhang, Antoine Dembadouno, Ahmed Elkelity, Shicheng He, Qianlong Ma, Shiqian Song
article en

Abstract

Abstract Safety of modern cargo ship transportation is essential to the world trade. For the contemporary medium-to-large cargo fleet, it is essential to develop high-fidelity risk analysis and reliability concepts, particularly for analysing onboard-recorded datasets when available. Existing structural reliability and structural damage risk analysis techniques are often unsuitable for high-dimensional dynamic transportation systems with nonlinear intercorrelations among key parts or dimensions. This case study used onboard-measured datasets to characterise hotspot stresses in the container ship’s deck panels and hull during its transatlantic voyages. Structural damage and container loss risks increase with excessive vessel motion or fatigue cracks in deck panels. Vessel dynamics is multimodal, highly nonlinear and nonstationary; hence, full-scale onboard physical measurements take priority over numerical simulations and scaled laboratory tests, including towing-tank tests. Onboard data recorded during transatlantic voyages in occasionally adverse ocean conditions offer unique insights into the operational dynamics of the laden 4400 TEU container ship.

Journal of Navigation
Suez University (EG), Shanghai Ocean University (CN), Chongqing Jiaotong University (CN)
Structural Integrity and Reliability Analysis
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