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Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach

Research output: Contribution to conference - Without ISBN/ISSN Conference paper

Published

Standard

Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach. / Odijie, Charles; Ye, Jianqiao.
2015. Paper presented at International Conference on Light Weight Design of Marine Structures, Glasglow, United Kingdom.

Research output: Contribution to conference - Without ISBN/ISSN Conference paper

Harvard

Odijie, C & Ye, J 2015, 'Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach', Paper presented at International Conference on Light Weight Design of Marine Structures, Glasglow, United Kingdom, 9/11/15 - 11/11/15.

APA

Odijie, C., & Ye, J. (2015). Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach. Paper presented at International Conference on Light Weight Design of Marine Structures, Glasglow, United Kingdom.

Vancouver

Odijie C, Ye J. Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach. 2015. Paper presented at International Conference on Light Weight Design of Marine Structures, Glasglow, United Kingdom.

Author

Bibtex

@conference{2f4f2515ddfe40ba8b6a087333844fd4,
title = "Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform: a finite element approach",
abstract = "This paper presents a detailed study of high amplitude wave loadings on the hull of a paired column semisubmersible platform, for material selection during scantling. The recent development of deep draft paired column semisubmersible platform for dry trees application in the Gulf of Mexico has opened a new phase in the functionalities of semisubmersible platforms in the oil & gas industry. Its innovation nevertheless is not without the high cost of steel for hull columns and reinforcement during construction. A technique for hull weight reduction has been postulated with the possible application of composite girders and stiffeners on regions with less stress profile during high amplitude ocean loading for hull reinforcement. The column deformations and stress profile from fluid structural interactions have been studied, and a precise understanding of the material and structural deformation of the hull component has been recorded using FEA. Results have suggested that the drag effect of flow circulation within the hull formation is more dominant on the inner columns, and minimum steel reinforcement might be required on the sensitive areas around the inner columns. As expected, the un-submerged surface area received no significant stress variation irrespective of the wave amplitude profile and the bulking tendencies of the inner part of the outer column is also reduced. ",
author = "Charles Odijie and Jianqiao Ye",
year = "2015",
month = nov,
day = "9",
language = "English",
note = "International Conference on Light Weight Design of Marine Structures ; Conference date: 09-11-2015 Through 11-11-2015",

}

RIS

TY - CONF

T1 - Understanding Fluid-Structure Interaction for high amplitude wave loadings on a deep-draft paired column semi-submersible platform

T2 - International Conference on Light Weight Design of Marine Structures

AU - Odijie, Charles

AU - Ye, Jianqiao

PY - 2015/11/9

Y1 - 2015/11/9

N2 - This paper presents a detailed study of high amplitude wave loadings on the hull of a paired column semisubmersible platform, for material selection during scantling. The recent development of deep draft paired column semisubmersible platform for dry trees application in the Gulf of Mexico has opened a new phase in the functionalities of semisubmersible platforms in the oil & gas industry. Its innovation nevertheless is not without the high cost of steel for hull columns and reinforcement during construction. A technique for hull weight reduction has been postulated with the possible application of composite girders and stiffeners on regions with less stress profile during high amplitude ocean loading for hull reinforcement. The column deformations and stress profile from fluid structural interactions have been studied, and a precise understanding of the material and structural deformation of the hull component has been recorded using FEA. Results have suggested that the drag effect of flow circulation within the hull formation is more dominant on the inner columns, and minimum steel reinforcement might be required on the sensitive areas around the inner columns. As expected, the un-submerged surface area received no significant stress variation irrespective of the wave amplitude profile and the bulking tendencies of the inner part of the outer column is also reduced.

AB - This paper presents a detailed study of high amplitude wave loadings on the hull of a paired column semisubmersible platform, for material selection during scantling. The recent development of deep draft paired column semisubmersible platform for dry trees application in the Gulf of Mexico has opened a new phase in the functionalities of semisubmersible platforms in the oil & gas industry. Its innovation nevertheless is not without the high cost of steel for hull columns and reinforcement during construction. A technique for hull weight reduction has been postulated with the possible application of composite girders and stiffeners on regions with less stress profile during high amplitude ocean loading for hull reinforcement. The column deformations and stress profile from fluid structural interactions have been studied, and a precise understanding of the material and structural deformation of the hull component has been recorded using FEA. Results have suggested that the drag effect of flow circulation within the hull formation is more dominant on the inner columns, and minimum steel reinforcement might be required on the sensitive areas around the inner columns. As expected, the un-submerged surface area received no significant stress variation irrespective of the wave amplitude profile and the bulking tendencies of the inner part of the outer column is also reduced.

M3 - Conference paper

Y2 - 9 November 2015 through 11 November 2015

ER -