Numerical Simulation and Analysis of a Temperature Field in Subsea Caisson

Subsea oil and gas production systems with caisson are widely utilized in offshore oil and gas resources development. During the development and production processes of oil fields, high-temperature crude oil is transported through jumpers. To assure the continuous flow of crude oil during transportation and to prevent localized high temperatures around the jumper, which could potentially cause a burn risk to divers operating within the caisson, an effective insulation design is essential for the jumper inside the caisson. This study validates experimental models of subsea caissons using numerical simulation of equivalent scale and establishes numerical simulation models of engineering dimensions. The study indicates a high degree of agreement between the temperature field distribution obtained from the numerical simulation and the engineering-scale experimental model. Simulations of the engineering-scale experimental model further demonstrate the significant thermal insulation effect of the insulation layer within the subsea oil and gas production system. It reduces the impact of seawater temperature during normal production and extends the crude oil safety shutdown time during shutdown conditions. Based on considerations of safety shutdown duration and diver safety with respect to seawater temperature, a 60-mm insulation layer is recommended. The research results can provide valuable guidance for insulation design in other subsea caissons in the future.

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Publication Details

Journal
Journal of Energy Engineering
Published
2025-03-20
DOI
https://doi.org/10.1061/jleed9.eyeng-5719
Citations
1
Primary Topic
Methane Hydrates and Related Phenomena
Type
article
Field-Weighted Citation Impact
0.86
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article

Numerical Simulation and Analysis of a Temperature Field in Subsea Caisson

Yasi Ye, Liangsheng Zhou, Hongju Chen, Gen Li et al.
1 citations
Journal of Energy Engineering
Methane Hydrates and Related Phenomena
0.86
article

Numerical Simulation and Analysis of a Temperature Field in Subsea Caisson

Yasi Ye, Liangsheng Zhou, Hongju Chen, Gen Li, Kai You Wang, Jing Gong, Mengli Hei
article en
1 citations

Abstract

Subsea oil and gas production systems with caisson are widely utilized in offshore oil and gas resources development. During the development and production processes of oil fields, high-temperature crude oil is transported through jumpers. To assure the continuous flow of crude oil during transportation and to prevent localized high temperatures around the jumper, which could potentially cause a burn risk to divers operating within the caisson, an effective insulation design is essential for the jumper inside the caisson. This study validates experimental models of subsea caissons using numerical simulation of equivalent scale and establishes numerical simulation models of engineering dimensions. The study indicates a high degree of agreement between the temperature field distribution obtained from the numerical simulation and the engineering-scale experimental model. Simulations of the engineering-scale experimental model further demonstrate the significant thermal insulation effect of the insulation layer within the subsea oil and gas production system. It reduces the impact of seawater temperature during normal production and extends the crude oil safety shutdown time during shutdown conditions. Based on considerations of safety shutdown duration and diver safety with respect to seawater temperature, a 60-mm insulation layer is recommended. The research results can provide valuable guidance for insulation design in other subsea caissons in the future.

Journal of Energy EngineeringVol. 151(3)
Beijing Institute of Petrochemical Technology (CN), China University of Petroleum, Beijing (CN)
Climate action, Life below water
Openalex Percentile: Top 30%
Methane Hydrates and Related Phenomena
0.86
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