气井井下应用的压缩技术选择

Ameen Malkawi, Ahmed Aladawy, Rajesh Kumar Venkata Gadamsetty, Rafael Adolfo Lastra Melo
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引用次数: 1

摘要

井下气体压缩技术是一种人工举升方法,旨在提高产量,最大限度地提高采收率,并延迟气井中液体加载的开始。有不同的井下压缩技术可以考虑,如螺杆、涡旋、离心和轴向压缩机。选择合适的类型主要取决于预期的油井性能、环境条件、压缩机运行范围、技术特性、限制和尺寸限制。本研究的目的是对一组给定的候选气井的压缩方案进行可行性评估。气动和水力模型用于确定运行条件、压缩机性能,并选择设备规格,如叶轮直径、压缩机包络、轴马力要求和级数等参数。对所有压缩技术及其特性进行Pugh分析,为给定的井组选择最合适的解决方案。分析结果表明,一种最优的井下压缩技术可以满足大多数气体流量要求,并满足性能预期。该研究还提供了压缩机的关键规格,包括在相对较小的外壳直径下提供所需的流量和压缩比所需的高速运行。研究还发现,其他技术也可能适用,但仅适用于某些井群,因为在研究条件下,流量谱比最优解窄。本研究中对废弃压缩技术的分析表明,与选定的压缩技术相比,在井下应用中存在相对明显的缺点。本研究对气井压缩技术的选择进行了全面的分析,根据作者的理解,这在现有的气井应用文献中是独一无二的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Compression Technology Selection for Downhole Application in Gas Wells
Downhole gas compression technology is an artificial lift method that aims to boost production, maximize recovery and delay onset of liquid loading in gas wells. There are different available compression technologies that can be considered for downhole applications, such as screw, scroll, centrifugal and axial compressors. Selection of the appropriate type mainly depends on expected well performance, ambient conditions, compressor operating envelope, technology characteristics, limitations and size constraints. The objective of this study is to perform a feasibility evaluation of compression solutions applicable for a given set of candidate gas wells. Aerodynamic and hydraulic models are used to determine operating conditions, compressor performance, and to select equipment specifications such as impeller diameter, compressor envelope, shaft HP requirement and number of stages among other parameters. A Pugh analysis is performed for all compression technologies and their characteristics to down-select the most suitable solutions for the given set of wells. The results of the analysis indicated an optimal downhole compression technology that covers most of the gas flow rate requirements and meet the performance expectations. The study also provided critical specifications for the compressor, including high-speed operation needed to provide the required flow rates and compression ratio for a relatively small housing diameter. The study also finds that other technologies may be applicable but only to certain population of wells, as the flow rate spectrum is narrower than the optimal solution at the studied conditions. The analysis for the discarded compression technologies in this study showed relatively significant disadvantages for downhole application when compared to the selected compressor. This study presents a holistic analysis for compression technology selection for gas wells that, as per to the understanding of the authors, is unique in the existing literature of gas well applications.
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