一种革命性的封隔器式气体分离器,利用重力作用,在油气井中超越传统的气体分离效率

G. González, L. Guanacas, C. Portilla, Neil Johnson Vazhappilly
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引用次数: 0

摘要

为了提高井下气体分离效率,设计了一种革命性的封隔器式气体分离器。对气体分离方法进行了深入分析,以了解过程的性质,并设计了一种工具,可以为气体分离现象产生更好的条件。在分析Permian油田的数据以开发这种新型气体分离器的研究阶段,工程团队发现了井下气体分离的三个主要挑战。首先,这些井较早地从电潜泵(ESP)转换为有杆泵,迫使井下气体分离器处理更多的产量。其次,小的生产套管尺寸通常为5.5英寸,这大大减少了环空面积,这对于获得有效的气体分离效率至关重要;第三,气体段塞行为,在很大程度上可能导致气锁。根据要求和限制,设计、制造了一种封隔器型气体分离器,并在多口井中进行了测试。这款气体分离器的出口截面为1.89"外径,这意味着该设计最大限度地提高了气体分离面积,在流体出口点真正重要的地方。革命性的出液槽设计创造了一个线性流道,允许气体分离并以自然的方式沿套管环空向上流动。此外,在杯状封隔器下方还安装了一个阀门,以消除涌流。这种阀门通过将流体保持在垂直段来防止涌动,从而避免了当气体段塞留下液体时的回流。开发了一个计算工具,用于估算井下气体分离效率,并比较不同气体分离器之间的气体分离效率,以评估新设计。在5口井中实施该设计后,结果证实了这种新型气体分离器配置获得的高气体分离效率。这种气体分离器设计的新颖之处在于,其出口部分利用重力来提高气体分离效率,而不会限制底部钻具组合(BHA)的抗拉强度。
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A Revolutionary Packer Type Gas Separator that Involves Gravity Force to Exceed Traditional Gas Separation Efficiency in Oil and Gas Wells
A revolutionary packer-type gas separator was designed to improve downhole gas separation efficiency. A deep analysis of gas separation methods was done to understand the process's nature and design a tool that could generate enhanced conditions for the gas separation phenomenon. During the research stages where data from Permian fields were analyzed to develop this new design of gas separator, the engineering team found three main challenges in downhole gas separation. First, the wells were converted from Electrical Submersible Pump (ESP) to Rod Pumps earlier, forcing the downhole gas separators to handle more production. Second, the small production casing size usually is 5.5" casing, which significantly reduces the annulus area, which is vital to get an effective gas separation efficiency, and third the gas slugging behavior, which in high proportion can lead to a gas lock-in sucker rod pump system. A packer-type gas separator was designed, built, and tested in multiple wells following the requirements and limitations. This gas separator has an outlet section of 1.89" O.D., which means the design maximizes the gas separation area where it really matters at the fluid outlet point. The revolutionary fluid exit slots design creates a linear flow path allowing gas to separate and flow upward the casing annulus in a natural way. Additionally, a valve below the cup packer was included to eliminate surging. This valve prevents surging by holding the fluid in the vertical section, thus avoiding backflow when the gas slug leaves liquids behind. A calculator was developed to estimate the gas separation efficiency downhole and compare the gas separation efficiency among different gas separators to evaluate the new design. After the implementation of this design in 5 wells, the results confirmed the high gas separation efficiency obtained with this new gas separator configuration. The novelty of this gas separator design is the outlet section that takes advantage of the gravity force to increase the gas separation efficiency without limiting the tensile strength of the Bottom Hole Assembly (BHA).
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