Compressor Computerized Performance Monitoring System CPMS

Vadim Goryachikh, Fahad Alghamdi, Abdulrahman Takrouni
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Abstract

Natural gas liquid (NGL) production facilities, typically, utilize turbo-expander-brake compressor (TE) to generate cold for C2+ separation from the natural gas by isentropic expansion of feed stream and use energy absorbed by expansion to compress residue gas. Experience shows that during operational phase TE can exposed to operation outside of design window that may lead to machine integrity loss and consequent impact on production. At the same time, there is a lack of performance indicators that help operator to monitor operating window of the machine and proactively identify performance deterioration. For instance, TE brake compressor side is always equipped with anti-surge protection system, including surge deviation alarms and trip. However, there is often gap in monitoring deviation from stonewall region. At the same time, in some of the designs (2×50% machines) likelihood of running brake compressor in stonewall is high during one machine trip or train start-up, turndown operating modes. Also, typical compressor performance monitoring systems does not have enough dynamic parameters that may indicate machine process process performance deterioration proactively (real-time calculation of actual polytrophic efficiency, absorbed power etc.) and help operator to take action before catastrophic failure occurs. In addition, typical compressor monitoring systems are based on assumed composition and fixed compressibility factor and do not reflect actual compositions variations that may affect machine performance monitoring. To overcome issues highlighted above, Hawiyah NGL (HNGL) team has developed computerized monitoring and advisory system to monitor the performance of turbo-expander-brake compressor, proactively, identify potentially unsafe conditions or performance deterioration and advice operators on taking necessary actions to avoid unscheduled deferment of production. Computerized performance monitoring system has been implemented in HNGL DCS (Yokogawa) and utilized by control room operators on day-to-day basis. Real-time calculation, analysis and outputs produced by performance monitoring system allow operator to understand how current operating condition are far from danger zone. Proactive deviation alarms and guide messages produce by the system in case of deviation help operators to control machine from entering unsafe region. Actual polytrophic efficiency, adsorbed power calculations provide machine condition status and allow identifying long-term performance deterioration trends.
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压缩机计算机性能监测系统CPMS
天然气液体(NGL)生产设施通常采用涡轮-膨胀-制动压缩机(TE),通过进料流的等熵膨胀产生C2+分离所需的冷,并利用膨胀吸收的能量压缩残余气体。经验表明,在运行阶段,TE可能会暴露在设计窗口之外的操作中,这可能会导致机器完整性的损失,并由此对生产产生影响。同时,缺乏性能指标来帮助操作员监控机器的运行窗口,主动识别性能恶化。例如,TE制动压缩机侧始终配备防喘振保护系统,包括喘振偏差报警和跳闸。然而,在监测偏离石墙区往往存在差距。同时,在某些设计(2×50%机器)中,在一次机器行程或列车启动,关闭操作模式期间,制动压缩机在石墙中运行的可能性很高。此外,典型的压缩机性能监测系统没有足够的动态参数来主动指示机器过程过程性能的恶化(实时计算实际多营养效率、吸收功率等),并帮助操作员在灾难性故障发生之前采取行动。此外,典型的压缩机监测系统是基于假定的成分和固定的压缩系数,并不反映可能影响机器性能监测的实际成分变化。为了克服上述突出问题,Hawiyah NGL (HNGL)团队开发了计算机监控和咨询系统,以监测涡轮膨胀-制动压缩机的性能,主动识别潜在的不安全状况或性能恶化,并建议运营商采取必要措施,以避免意外延迟生产。计算机化的性能监控系统已在HNGL DCS(横河)实施,并由控制室操作员日常使用。性能监测系统的实时计算、分析和输出,使操作人员能够了解当前的操作状况如何远离危险区域。在发生偏差时,系统产生主动偏差报警和引导信息,帮助操作员控制机器进入不安全区域。实际的多营养效率、吸附功率计算提供了机器状态,并允许识别长期性能恶化趋势。
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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