海底PIP管道横向屈曲参数研究

IF 0.7 Q4 ENGINEERING, OCEAN
Xinhu Zhang, Menglan Duan, Yingying Wang, Tongtong Li
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引用次数: 2

摘要

为了满足深水条件的技术需求,克服单层管道在深水应用中的不足,管中管(PIP)系统得到了发展。然而,对于直接铺设在海底或部分嵌入的PIP管道,主要的使用风险之一是横向屈曲。临界轴向力是控制整体侧向屈曲响应的关键因素,近年来受到越来越多的关注。受整体缺陷、沉水自重、刚度、管土相互作用特性等因素的影响。本研究基于Abaqus中三维梁单元和管对管单元建立了不完善PIP系统的有限元模型。研究了这些参数对临界轴向力和后屈曲形式的影响。这些参数包括结构参数,如缺陷、间隙和舱壁间距,管道/土壤相互作用参数,如管道与海底之间的轴向和侧向摩擦特性,以及载荷参数水下重量。以Python为编程语言,在Abaqus中实现参数化建模。所得结论可为PIP管道的设计提供指导。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Parameters study on lateral buckling of submarine PIP pipelines
In meeting the technical needs for deepwater conditions and overcoming the shortfalls of single-layer pipes for deepwater applications, pipe-in-pipe (PIP) systems have been developed. While, for PIP pipelines directly laid on the seabed or with partial embedment, one of the primary service risks is lateral buckling. The critical axial force is a key factor governing the global lateral buckling response that has been paid much more attention. It is influenced by global imperfections, submerged weight, stiffness, pipe-soil interaction characteristics, et al. In this study, Finite Element Models for imperfect PIP systems are established on the basis of 3D beam element and tube-to-tube element in Abaqus. A parameter study was conducted to investigate the effects of these parameters on the critical axial force and post-buckling forms. These parameters include structural parameters such as imperfections, clearance, and bulkhead spacing, pipe/soil interaction parameter, for instance, axial and lateral friction properties between pipeline and seabed, and load parameter submerged weight. Python as a programming language is been used to realize parametric modeling in Abaqus. Some conclusions are obtained which can provide a guide for the design of PIP pipelines.
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来源期刊
自引率
22.20%
发文量
0
期刊介绍: The OCEAN SYSTEMS ENGINEERING focuses on the new research and development efforts to advance the understanding of sciences and technologies in ocean systems engineering. The main subject of the journal is the multi-disciplinary engineering of ocean systems. Areas covered by the journal include; * Undersea technologies: AUVs, submersible robot, manned/unmanned submersibles, remotely operated underwater vehicle, sensors, instrumentation, measurement, and ocean observing systems; * Ocean systems technologies: ocean structures and structural systems, design and production, ocean process and plant, fatigue, fracture, reliability and risk analysis, dynamics of ocean structure system, probabilistic dynamics analysis, fluid-structure interaction, ship motion and mooring system, and port engineering; * Ocean hydrodynamics and ocean renewable energy, wave mechanics, buoyancy and stability, sloshing, slamming, and seakeeping; * Multi-physics based engineering analysis, design and testing: underwater explosions and their effects on ocean vehicle systems, equipments, and surface ships, survivability and vulnerability, shock, impact and vibration; * Modeling and simulations; * Underwater acoustics technologies.
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