Compressor Dry Gas Seal Failure Mitigation for Reliable Gas Injection System at Banyu Urip Field

N. S. Huang, Y. H. Putra
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Abstract

The gas injection system at Banyu Urip oil production facility in Indonesia consists of two compressor trains. Each train comprises one LP and one HP centrifugal compressor with a gas dehydration system in between. In 2020, one dehydration system experienced fouling and subsequently increased the gas moisture content. The condition initiated corrosion product formation flowing to both the LP and HP compressors of the particular train and subsequently damaged the compressor Dry Gas Seal (DGS) system. The paper will be focusing on the investigation of two dry gas seal failure cases due to contaminated process gas by corrosion product. The corrosion product blocked the seal gas strainer of HP compressor and caused reverse flow across the labyrinths seal, exposing the dry gas seal to dirty gas. Additionally, as the process gas coming into the LP compressor has not been dehydrated, field inspections revealed the second failure case that the process gas condensation caused accumulation of the fine debris at the orifice plate of the seal gas leakage line. Various improvements and dry gas seal system modifications were carried out to cope with the dry gas seal failures, such as the installation of duplex seal gas strainer to allow strainer replacement without shutting down the compressor. Furthermore, the Electrical Heat Tracing (EHT) installation at the seal orifice plate also successfully prevented the process gas condensation. Upon implementation of the strategies, the Banyu Urip facility successfully managed to improve the reliability of the gas injection system despite fouling gas dehydration unit.
Banyu Urip油田可靠注气系统压缩机干气密封失效缓解
印度尼西亚Banyu Urip石油生产设施的注气系统由两个压缩机系统组成。每列包括一台低压和一台高压离心压缩机,中间有一个气体脱水系统。2020年,一个脱水系统出现了污垢,随后增加了气体水分含量。这种情况导致腐蚀产物流入特定列车的低压和高压压缩机,随后损坏压缩机干气密封(DGS)系统。本文将重点研究两起因工艺气体被腐蚀产物污染而导致干气密封失效的案例。腐蚀产物堵塞高压压缩机密封气体过滤器,造成迷宫密封逆流,使干气密封暴露于脏气中。另外,由于进入低压压缩机的工艺气体没有经过脱水处理,现场检查发现了第二种故障情况,即工艺气体冷凝导致密封漏气管路孔板处堆积了细小碎屑。为了应对干气密封故障,进行了各种改进和干气密封系统修改,例如安装双密封气体过滤器,以便在不关闭压缩机的情况下更换过滤器。此外,在密封孔板上安装的电伴热(EHT)也成功地防止了工艺气体的冷凝。在实施这些策略后,Banyu Urip设施成功地提高了注气系统的可靠性,尽管存在气脱水装置的污染。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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