海底多相泵的防砂与冲蚀预测

IF 1.1 Q4 ENGINEERING, MECHANICAL Journal of the Global Power and Propulsion Society Pub Date : 2022-03-07 DOI:10.33737/jgpps/145322
Ina Ekeberg, Pierre-Jean Bibet, H. Knudsen, Øyvind Reimers, E. Torbergsen
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引用次数: 2

摘要

在过去的十年里,海底多相泵取得了非凡的技术突破。驱动因素是石油和天然气公司对更深、更偏远的海底生产卫星的要求,以及生产更具挑战性的流体。多相泵(MPP)技术不断发展,在轴功率、设计压力、压差和高粘度能力方面打破了纪录。此外,目前的可靠性数据显示,5年无故障运行的概率为86.5%。如今,一个主要挑战是抵御沙侵蚀的能力。海底MPP被放置在海底,以增加海底油气井的产量,通常没有任何上游分离器或防砂系统。不可避免的出砂被引导通过泵,并被进一步输送到顶部到达分离器。本文中考虑的MPP是一种动态螺旋轴流泵,其转速通常高达4600 rpm和3.5 MW。显然,泵供应商和运营商都做出了重大努力,使MPP尽可能稳健。本文的第一部分描述了海底油气生产系统中如何减少和控制出砂,以及意外出砂事件如何发生。在第二部分中,根据操作经验和磨损试验,解释了MPP部件的各种磨损机制。最后,将从现场检索到的Moho泵上观察到的磨损与内部MPP磨损预测模型预测的磨损率和模式进行了比较。
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Sand management and erosion prediction in subsea multiphase pumps
Over the past ten years, subsea multiphase pumping has accomplished extraordinary technology breakthroughs. The drivers are the oil and gas companies’ requirements for deeper and more remote subsea production satellites along with producing more challenging fluids. The multiphase pump (MPP) technology has kept evolving, breaking records in terms of shaft power, design pressure, differential pressure, and high viscosity capabilities. In addition, the current reliability data shows 86.5% probability of 5 years failure-free operation. Today, a main challenge is the ability to withstand sand erosion. A subsea MPP is placed on the seafloor to increase the production from subsea oil and gas wells, normally without any upstream separator or sand control system. The inevitable sand production is directed through the pump and transported further to the topside arrival separator. The MPP considered in this paper is a dynamic helico-axial pump with rotational speeds typically ranging up to 4,600 rpm and 3.5 MW. Obviously, both pump vendor and operator have made significant efforts to make the MPP as robust as possible. The first part of this paper describes how sand production is mitigated and controlled in a subsea oil and gas production system, but also how an accidental sand event can nevertheless happen. In the second part, the various wear mechanisms of MPP components are explained based on operational experience and wear tests. Finally, it presents the comparison of the wear observed on the Moho pump retrieved from the field with the wear rate and pattern predicted by the in-house MPP wear prediction model.
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来源期刊
Journal of the Global Power and Propulsion Society
Journal of the Global Power and Propulsion Society Engineering-Industrial and Manufacturing Engineering
CiteScore
2.10
自引率
0.00%
发文量
21
审稿时长
8 weeks
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