Behavior of Subsea Pipelines Expansion under High Pressure and Temperature Design
Abstract
In offshore operation, Crude oil is transported by means of pipeline system from oil well to platform at High Pressure and High Temperature. The pipeline will experience expansion and multi stresses due to internal pressure and operating temperature that the material properties of pipe tend to deformation which affect to the durability of pipeline. This phenomenon should be considered in the design process of pipeline and to estimate the expansion is under limit of pipeline strength otherwise the pipeline will be failure cause of catastrophic .
##Keywords:##
Pipeline Expansion; High Pressure; High Temperature; Axial Force.
Published
Nov 20, 2013
How to Cite
JUNAIDI, Abdul Khair; AFRIZAL, Efi; ARIF, Dodi Sofyan.
Behavior of Subsea Pipelines Expansion under High Pressure and Temperature Design.
Journal of Ocean, Mechanical and Aerospace -science and engineering-, [S.l.], v. 1, n. 1, p. 8-11, nov. 2013.
ISSN 2527-6085.
Available at: <https://isomase.org/Journals/index.php/jomase/article/view/507>. Date accessed: 25 may 2026.
doi: http://dx.doi.org/10.36842/jomase.v1i1.507.
References
1. Palmer, A.C. and R.A. King (2008), Subsea Pipeline Engineering, Pennwell Corporation.
2. Det Norske Veritas. DNV (2007), Offshore Standard DNV- OS-F101: submarine pipeline systems. Hovik, Norway: Det Norske Veritas, DNV.
3. Bai, Y. and Q. Bai (2010), Subsea Engineering Handbook.’’ USA, Elsevier.
4. Bakhtiary, A.Y., A. Ghaheri, et al (2007), Analysis of Offshore Pipeline Allowable Free Span Length.
5. Shao, B., X. Yan, et al.(2011). Reliability Analysis of Locally Thinned Submarine Pipelines in Cheng Dao Oil Field, Applied Mechanics and Materials, Vol. 94-96, pp:1527-1530.
6. Karamanos, S.A and J.L Tassoulas (1991), Stability of Deep water Pipelines Under Combined Loading.
7. Li, Z.G. (2010), Configuration of Submarine Pipeline for Deep water S-Lay Technique, The International Society of Offshore and Polar Engineers.
8. Guarracino, F.V. and Mallardo (1999), A Refined Analysis of Submerged Pipelines in Seabed Laying, Applied Ocean Research,vol.21.
9. A.K. Junaidi, Jaswar, Efi Afrizal (2013), Subsea Petroleum Pipeline Design in Deep Water, Applied The International Conference of Numerical Analysis Engineering, Indonesia.
10. Jaswar, A.K. Junaidi, Hashif (2013), Effect of Axial Force Concept in Offshore Pipeline Design, The International Conference on Marine Safety and Environment, Malaysia.
11. Jaswar, A.K. Junaidi, H.A. Rashidi (2013), Expansionof Deep Water Subsea Pipeline, Applied in The International Conference on Marine Safety and Environment, Malaysia.
2. Det Norske Veritas. DNV (2007), Offshore Standard DNV- OS-F101: submarine pipeline systems. Hovik, Norway: Det Norske Veritas, DNV.
3. Bai, Y. and Q. Bai (2010), Subsea Engineering Handbook.’’ USA, Elsevier.
4. Bakhtiary, A.Y., A. Ghaheri, et al (2007), Analysis of Offshore Pipeline Allowable Free Span Length.
5. Shao, B., X. Yan, et al.(2011). Reliability Analysis of Locally Thinned Submarine Pipelines in Cheng Dao Oil Field, Applied Mechanics and Materials, Vol. 94-96, pp:1527-1530.
6. Karamanos, S.A and J.L Tassoulas (1991), Stability of Deep water Pipelines Under Combined Loading.
7. Li, Z.G. (2010), Configuration of Submarine Pipeline for Deep water S-Lay Technique, The International Society of Offshore and Polar Engineers.
8. Guarracino, F.V. and Mallardo (1999), A Refined Analysis of Submerged Pipelines in Seabed Laying, Applied Ocean Research,vol.21.
9. A.K. Junaidi, Jaswar, Efi Afrizal (2013), Subsea Petroleum Pipeline Design in Deep Water, Applied The International Conference of Numerical Analysis Engineering, Indonesia.
10. Jaswar, A.K. Junaidi, Hashif (2013), Effect of Axial Force Concept in Offshore Pipeline Design, The International Conference on Marine Safety and Environment, Malaysia.
11. Jaswar, A.K. Junaidi, H.A. Rashidi (2013), Expansionof Deep Water Subsea Pipeline, Applied in The International Conference on Marine Safety and Environment, Malaysia.
