Experimental and numerical analysis of failure in flexible pipe by a mechanism of intentional damage

被引:0
|
作者
Marco A. Hernández-Rojo
Jorge L. Alamilla-Lopez
M. A. Dominguez-Aguilar
Eliceo Sosa-Hernández
机构
[1] Mexican Petroleum Institute,Pipeline and Materials Management, Hydrocarbon Transformation Research Directorate
[2] Mexican Petroleum Institute,Hydrocarbon Production and Corrosion Control Laboratory, Operation Planning Directorate
关键词
Failure mechanism; Flexible pipe; HDPE; Intentional damage; Onshore application;
D O I
暂无
中图分类号
学科分类号
摘要
The use of flexible pipe in onshore applications is now commonplace; however, there is scarce information on the modes of failure that affect its mechanical integrity, so its application in a transmission systems is risky and should require further analysis. An experimental- numerical study was performed to observe changes in the mechanical response and failure modes in this type of pipes. Pipe was perforated at a working pressure of 30 kg/cm2 (426.7 psi) to simulate experimentally the conditions generated when a hot tapping hole is illegally made to plunder petroleum products. It was found that the different pipe sections have a relatively low mechanical strength, especially the layer made of high density polyethylene. Tension and compression tests were carried out to obtain the appropriate technical data to perform static simulations, considering an external hole as the failure mechanism. After finite element modeling, it was found that flexible pipe presented an initial collapse in the HDPE inner layer at a pressure of 21.09 kg/cm2 (300 psi), which coincided with the experimental collapse induced by hot tapping drilling. This type of damage had not been studied in flexible pipelines for onshore applications. The information provided is useful in making decisions for the proper materials selection involved in the transport of hydrocarbons onshore.
引用
收藏
页码:1979 / 1988
页数:9
相关论文
共 50 条
  • [21] Experimental and numerical analysis of soil-pipe interaction
    Calvetti, F
    di Prisco, C
    Nova, R
    JOURNAL OF GEOTECHNICAL AND GEOENVIRONMENTAL ENGINEERING, 2004, 130 (12) : 1292 - 1299
  • [22] Numerical analysis of damage and failure behavior of concrete
    Bruenig, Michael
    Michalski, Alexander
    INTERNATIONAL JOURNAL OF DAMAGE MECHANICS, 2020, 29 (04) : 570 - 590
  • [23] Experimental and computational failure analysis of natural gas pipe
    Majid, Z. A.
    Mohsin, R.
    Yusof, M. Z.
    ENGINEERING FAILURE ANALYSIS, 2012, 19 : 32 - 42
  • [24] Failure of a flexible pipe with a concrete liner
    Talesnick, M
    Baker, R
    ENGINEERING FAILURE ANALYSIS, 1998, 5 (03) : 247 - 259
  • [25] Failure of a flexible pipe with a concrete liner
    Department of Civil Engineering, Technion, Israel Institute of Technology, Haifa 32000, Israel
    Eng. Fail. Anal., 3 (247-259):
  • [26] Response and failure mechanism of utility tunnel with flexible joints under reverse fault: An experimental, numerical, and analytical investigation
    Wang, Zhigang
    Tao, Lianjin
    Shi, Cheng
    An, Shao
    Liu, Jun
    EARTHQUAKE SPECTRA, 2023, 39 (01) : 335 - 361
  • [27] Experimental and numerical analysis of Brazilian splitting mechanical properties and failure mechanism for composite discs
    Shan, Renliang
    Dou, Haoyu
    Liu, Nianzeng
    Bai, Haobo
    Meng, Haozhe
    Sun, Peng
    Xu, Zhibo
    Bai, Yao
    Zhao, Yan
    CONSTRUCTION AND BUILDING MATERIALS, 2024, 442
  • [28] Experimental and Numerical Analysis on the Damage and Failure Characteristics of Bituminous Coal under Multilevel Cyclic Loads
    Gong, Shuang
    Wang, Chaofei
    Zhou, Lei
    Xi, Furui
    Yao, Shibin
    Li, Xiaojun
    Liu, Juan
    Wang, Wen
    ADVANCES IN MATERIALS SCIENCE AND ENGINEERING, 2022, 2022
  • [29] Experimental and Numerical Analysis of the Progressive Damage and Failure of SiCf/TC4 Composite Shafts
    Luo, Li
    Wang, Jingxuan
    Sha, Yundong
    Hao, Yanping
    Zhao, Fengtong
    APPLIED SCIENCES-BASEL, 2023, 13 (10):
  • [30] Failure Analysis of an Aluminum Chiller Pipe by Experimental Simulation and Stress Analysis
    Stevenson M.E.
    Iwand H.C.
    McDougall J.L.
    Umberger P.D.
    Wilkinson J.A.
    Kenner M.T.
    Stone D.H.
    Journal of Failure Analysis and Prevention, 2017, 17 (5) : 1090 - 1098