轴对称载荷作用下无粘结柔性立管的解析与数值分析

IF 0.7 Q4 ENGINEERING, OCEAN Ocean Systems Engineering-An International Journal Pub Date : 2016-06-25 DOI:10.12989/OSE.2016.6.2.129
Yousong Guo, Xiqia Chen, Deyu Wang
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引用次数: 2

摘要

由于结构的复杂性,柔性隔水管在轴对称载荷作用下的响应很难确定。本文从平衡条件、几何关系和本构方程出发,推导出能准确预测柔性立管轴对称特性的解析模型。由于该模型考虑了接触压力和层间间隙的互斥,因此可以分析载荷方向对结构性能的影响。同时,对无粘结柔性立管进行了详细的有限元分析。基于解析模型和数值模型,对典型挠性立管在拉、扭、内外压力作用下的结构响应进行了详细研究。将所得结果与文献中的实验数据进行了比较,两者吻合较好。研究表明,所建立的分析模型和数值模型可为柔性立管的分析和设计提供有意义的参考。
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Analytical and numerical analysis for unbonded flexible risers under axisymmetric loads
Due to the structural complexity, the response of a flexible riser under axisymmetric loads is quite difficult to determine. Based on equilibrium conditions, geometrical relations and constitutive equations, an analytical model that can accurately predict the axisymmetric behavior of flexible risers is deduced in this paper. Since the mutual exclusion between the contact pressure and interlayer gap is considered in this model, the influence of the load direction on the structural behavior can be analyzed. Meanwhile, a detailed finite element analysis for unbonded flexible risers is conducted. Based on the analytical and numerical models, the structural response of a typical flexible riser under tension, torsion, internal and outer pressure has been studied in detail. The results are compared with experimental data obtained from the literature, and good agreement is found. Studies have shown that the proposed analytical and numerical models can provide an insightful reference for analysis and design of flexible risers.
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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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