Numerical Study on the Working Safety of LNG-fueled Ship and LNG Bunkering Ships During Simultaneous Operations in Waves

Simultaneous LNG bunkering operations involve the concurrent execution of on/off loading and LNG bunkering. While this approach is economically advantageous due to reduced bunkering time, it also increases operational hazards. Consequently, the need for standardized safety regulations for bunkering simultaneous operations has become increasingly urgent. In this study, the safety of such operations under ocean wave conditions is investigated through numerical analysis for both the receiving and bunkering ships. The analysis considers both ship-to-ship (STS) and ship-to-wall (STW) configurations, examining how motion responses are affected by environmental conditions. The results confirm that both vessels are significantly influenced by wave reflections from the quay wall. Additionally, the bunkering ship is further affected by the presence of the receiving ship. When irregular waves act on the side-by-side moored vessels at the quay wall, the motion of the relatively smaller bunkering ship exhibits greater sensitivity to wave. Notably, the heave and roll responses of the bunkering ship become pronounced at certain significant wave heights. These findings highlight the necessity of developing detailed standards for LNG bunkering simultaneous operations, which should be addressed in future research.

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Publication Details

Journal
Journal of Ocean Engineering and Technology
Published
2025-07-25
DOI
https://doi.org/10.26748/ksoe.2025.021
Citations
1
Primary Topic
Marine and Coastal Research
Type
article
Field-Weighted Citation Impact
1.15

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article

Numerical Study on the Working Safety of LNG-fueled Ship and LNG Bunkering Ships During Simultaneous Operations in Waves

Byoungjae Park, Dong-Ho Jung, Kyeonguk Heo
1 citations
Journal of Ocean Engineering and Technology
Marine and Coastal Research
1.15
article

Numerical Study on the Working Safety of LNG-fueled Ship and LNG Bunkering Ships During Simultaneous Operations in Waves

Byoungjae Park, Dong-Ho Jung, Kyeonguk Heo
article en
1 citations

Abstract

Simultaneous LNG bunkering operations involve the concurrent execution of on/off loading and LNG bunkering. While this approach is economically advantageous due to reduced bunkering time, it also increases operational hazards. Consequently, the need for standardized safety regulations for bunkering simultaneous operations has become increasingly urgent. In this study, the safety of such operations under ocean wave conditions is investigated through numerical analysis for both the receiving and bunkering ships. The analysis considers both ship-to-ship (STS) and ship-to-wall (STW) configurations, examining how motion responses are affected by environmental conditions. The results confirm that both vessels are significantly influenced by wave reflections from the quay wall. Additionally, the bunkering ship is further affected by the presence of the receiving ship. When irregular waves act on the side-by-side moored vessels at the quay wall, the motion of the relatively smaller bunkering ship exhibits greater sensitivity to wave. Notably, the heave and roll responses of the bunkering ship become pronounced at certain significant wave heights. These findings highlight the necessity of developing detailed standards for LNG bunkering simultaneous operations, which should be addressed in future research.

Journal of Ocean Engineering and TechnologyVol. 39(4)
IPS Research (United States) (US), Korea Research Institute of Ships and Ocean Engineering
Ministry of Oceans and Fisheries, Korea Institute of Marine Science and Technology promotion
Openalex Percentile: Top 20%
Marine and Coastal Research
1.15
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