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基于AMESim的脐带缆液压传输特性及等效方法仿真研究 被引量:3

Simulation of Hydraulic Transmission Characteristics and Equivalent Method of Umbilical Cord Cable Based on AMESim
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摘要 分析脐带缆液压管线传输特性,提出等效方法。应用AMESim建立脐带缆液压管线液压仿真系统,进行仿真模拟,分析仿真结果,研究脐带缆的液压传输特性,并与相似性原理下脐带缆液压传输特性参数进行相对分析,确定脐带缆液压特性参数液阻、液容、液感在液压系统中的表现形式。根据分析结果,确定脐带缆液压传输特性的等效模型的形式,确定液阻、液容、液感的具体等方式,应用AMESim仿真分析了等效方法的等效性,确定了一种脐带缆液压管线的等效模型搭建形式。仿真结果可做为脐带缆液压等效装置搭建的理论参考。 To analyze the transmission characteristics of the hydraulic pipeline of the umbilical cord cable, the equivalent method is put forward. Using AMESim establish umbilical cord cable hydraulic pipeline of hydraulic simulation system, simulation was carried out and simulation results were analyzed to study hydraulic transmission characteristics of umbilical cord cable, and with similar princi- ple of umbilical cord cable hydraulic transmission characteristic parameters were relatively analyzed to determine the umbilical cord ca- ble hydraulic characteristic parameters of fluid resistance and fluid volume, liquid in expression form of the hydraulic system. According to the results of the analysis, the form of umbilical cable hydraulic transmission characteristics of the equivalent model is determined, and the fluid resistance and fluid, hydraulic concrete way are determined, and using the AMESim simulation, the equivalency of equiv- alent method is analyzed, and an equivalent model of the umbilical cord cable hydraulic pipeline construction form is determined. The simulation results can be used as a theoretical reference for the installation of the hydraulic equivalent of the umbilical cord cable.
出处 《机床与液压》 北大核心 2017年第17期161-165,170,共6页 Machine Tool & Hydraulics
基金 工业和信息化部海洋工程装备科研项目‘水下控制系统与关键设备研发’专项经费资助
关键词 脐带缆 液压传输特性 液压等效 液压管线 Umbilical cord cable Hydraulic transmission characteristics Hydraulic equivalent Hydraulic line
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  • 1曹惠芬.世界深海油气钻采装备发展趋势[J].船舶工业技术经济信息,2005(1):24-27. 被引量:5
  • 2Jin Z J, Bai G P, Ali Mansoori G. An inroduction to petroleum and natural gas exploration and production research in Cina [J]. Journal of Petroleum Science and Engineering, 2004, 41 : 1-7.
  • 3Beverley F, Ronalds. Applicability range for offshore oil and gas production facilities[J]. Marine Structures, 2005, 18: 251-263.
  • 4Harte A M, Williams D, Grealish F. A coupled temperature-displacement model for predicting the long-term performance of offshore pipeline insulation systems[J]. Journal of Materials Processing Technology, 2004, 155-156: 1242-1246.
  • 5Bruno Castanier, Marvin Rausand. Maintenance optimization for subsea oil pipelines[J]. International Journal of Pressure vessels and piping, 2006, 83(4): 236-243.
  • 6Kingsley E Abhulimen. Model for risk and reliability analysis of complex production systems: Application to FPSO/flow -Riser system[J]. Computer & Chemical Engineering, 2009,33(7):1306-1321.
  • 7Kavanagh W K, Doynov K, Gallagher D, Bai Y. The effect of tube friction on the fatigue life of steel tube umbilical risers-new approaches to evaluating fatigue life using enhanced nonlinear time domain methods[C]. OTC paper 16631. 2004.
  • 8Bai Y, Bai Q. Subsea pipelines and risers[M]. Elsevier Science Ltd. 2005: 477-496.
  • 9Uwe Zerbst, Gundula Stadie-Frohbos,Thomad Plonski, Jonathan Jury. The problem of adequate yield load solutions in the context of proof tests on a damaged subsea umbilical[J]. Engineering Failure Analysis, 2009, 16: 1062-1073.
  • 10ISO 13628-2--2006 Petroleum and natural gas industries Design and operation of subsea production systems Part 2: Unbonded flexible pipe systems for subsea and marine applications[S]. 2006 : 54-56.

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