Wet Gas Formation and Carryover in Compressor Suction Equipment

Griffin C. Beck, N. Andrews, A. G. Berry, A. McCleney
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引用次数: 1

Abstract

In gas processing, boosting, and gathering applications, gas-liquid separator equipment (typically referred to as a scrubber) is placed upstream of each reciprocating compressor stage to remove water and hydrocarbon condensates. However, field experience indicates that liquids are often still present downstream of the separation equipment. When liquids are ingested into the reciprocating compressor, machinery failures, some of which are severe, can result. While it is generally understood that liquid carryover and condensation can occur, it is less clear how the multiphase fluid moves through equipment downstream of the scrubber. In this paper, mechanisms responsible for liquid formation and carryover into reciprocating compressors are explored. First, the effects of liquid ingestion on reciprocating compressors reported in the open literature are reviewed. Then, the role of heat and pressure loss along the gas flow path is investigated to determine whether liquid formation (i.e., condensation) is likely to occur for two identical compressors with different pulsation bottle configurations. For this investigation, conjugate heat transfer (CHT) models of the suction pulsation bottles are used to identify regions where liquid dropout is likely to occur. Results of these investigations are presented. Next, liquid carryover from the upstream scrubber is considered. Multiphase models are developed to determine how the multiphase fluid flows through the complex flow path within the pulsation bottle. Two liquid droplet size distributions are employed in these models. Descriptions of the modeling techniques, assumptions, and boundary conditions are provided.
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压缩机吸入设备中湿气的形成和残留
在气体处理、增压和收集应用中,气液分离设备(通常称为洗涤器)位于每个往复式压缩机级的上游,以去除水和碳氢化合物凝析物。然而,现场经验表明,液体往往仍然存在于分离设备的下游。当液体被吸入往复式压缩机时,可能导致机械故障,其中一些是严重的。虽然人们普遍认为会发生液体携带和冷凝,但多相流体如何在洗涤器下游的设备中移动却不太清楚。本文对往复压缩机中液体形成和携带的机理进行了探讨。首先,回顾了在公开文献中报道的液体摄入对往复式压缩机的影响。然后,研究了沿气体流动路径的热压损失的作用,以确定两个相同的压缩机在不同的脉动瓶配置下是否可能发生液体形成(即冷凝)。在这项研究中,使用了吸气脉动瓶的共轭传热(CHT)模型来识别可能发生液体滴出的区域。本文介绍了这些调查的结果。接下来,考虑上游洗涤器的液体携流。建立了多相模型,以确定多相流体如何流经脉动瓶内复杂的流动路径。在这些模型中采用了两种液滴大小分布。提供了建模技术、假设和边界条件的描述。
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