Structural Analysis of Oil-Spill Boom Grounding at Low Tide

Oil-spill booms in shallow waters and high tidal amplitudes could ground on the seabed and retain high amounts of seawater. The object of this study is to estimate the mooring force at both boom section ends and the occurrence of submarining observed along the crest line. We use a Lagrangian linear elastic membrane theory incorporating the non-linear Green strain tensor and a non-updated hydrostatic or hydrodynamic load. We describe a numerical method using geometrically non-linear finite elements and 2D vertical hydrostatic pressure estimation. The calculated results indicate the role of hydrostatic pressure caused by the water height difference—several centimeters at the mid-section—and the influence of the elasticity module. We consolidate the mooring force results by supposing 2D horizontal hydrodynamic pressure. We associate the current velocity that produces the same mooring force with that generated by the hydrostatic load. The associated Froude number is close to 0.8.

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Publication Details

Journal
Journal of Marine Science and Engineering
Published
2025-10-16
DOI
https://doi.org/10.3390/jmse13101984
Primary Topic
Fluid Dynamics Simulations and Interactions
Type
article
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article

Structural Analysis of Oil-Spill Boom Grounding at Low Tide

Frédéric Muttin
Journal of Marine Science and Engineering
Fluid Dynamics Simulations and Interactions
article

Structural Analysis of Oil-Spill Boom Grounding at Low Tide

Frédéric Muttin
article en

Abstract

Oil-spill booms in shallow waters and high tidal amplitudes could ground on the seabed and retain high amounts of seawater. The object of this study is to estimate the mooring force at both boom section ends and the occurrence of submarining observed along the crest line. We use a Lagrangian linear elastic membrane theory incorporating the non-linear Green strain tensor and a non-updated hydrostatic or hydrodynamic load. We describe a numerical method using geometrically non-linear finite elements and 2D vertical hydrostatic pressure estimation. The calculated results indicate the role of hydrostatic pressure caused by the water height difference—several centimeters at the mid-section—and the influence of the elasticity module. We consolidate the mooring force results by supposing 2D horizontal hydrodynamic pressure. We associate the current velocity that produces the same mooring force with that generated by the hydrostatic load. The associated Froude number is close to 0.8.

Journal of Marine Science and EngineeringVol. 13(10)
Ecole d'ingénieurs en génie des systèmes industriels (FR)
Openalex Percentile: Top 69%
Fluid Dynamics Simulations and Interactions
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