Assessing the Performance of Point Sensor Continuous Monitoring Systems at Midstream Natural Gas Compressor Stations

Shuting Lydia Yang*,  and , Arvind P. Ravikumar, 
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Abstract

Continuous Monitoring Systems (CMS) are a promising technology to detect and quantify intermittent and high-volume methane emissions across the oil and gas supply chain. This is particularly salient at midstream compressor stations, where the contribution of short-duration emission events to total emissions makes survey-type technologies less suitable for developing accurate measurement-informed inventories. In this work, we report on the first concurrent and long-term test of five CMS technologies to detect, localize, and quantify methane emission from two major types of midstream compressor stations found in the US – a turbine-only station and an engine-only station. We find that CMS technologies can distinguish between different operational states of engine-driven compressors with large CH4 emissions contribution from compressor exhaust. Combining known events at these facilities with in situ controlled releases, we observe that all CMS technologies generally struggle in identifying short-duration (<30 min) or low emission rate (relative to baseline) events. Critically, we find that positive event detection, based on analysis of underlying methane signals, frequently did not translate to alerts sent to the operators. Deployment of CMS at midstream compressor stations must proceed with caution based on specific applications, site configuration, and the nature of baseline emissions.

This study reports on the concurrent test of five Continuous Monitoring Systems to detect, localize, and quantify methane emission and informs the practical deployment and limits of Continuous Monitoring Systems at midstream natural gas facilities.

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中游天然气压缩站点传感器连续监测系统性能评估
连续监测系统(CMS)是一项很有前途的技术,可以检测和量化油气供应链中间歇性和大量的甲烷排放。这在中游压缩站尤其突出,在中游压缩站,短时间排放事件对总排放量的贡献使得调查型技术不太适合开发精确的测量信息清单。在这项工作中,我们报告了五种CMS技术的首次同步和长期测试,以检测、定位和量化美国两种主要类型的中流压缩站的甲烷排放——仅涡轮站和仅发动机站。我们发现CMS技术可以区分压缩机排气中CH4排放量较大的发动机驱动压缩机的不同运行状态。结合这些设施的已知事件和原位控制释放,我们观察到所有CMS技术通常难以识别短时间(30分钟)或低排放率(相对于基线)事件。至关重要的是,我们发现基于底层甲烷信号分析的积极事件检测通常不会转化为发送给运营商的警报。在中游压缩站部署CMS必须根据具体应用、现场配置和基线排放的性质谨慎进行。本研究报告了五个连续监测系统的并发测试,以检测、定位和量化甲烷排放,并告知连续监测系统在中游天然气设施中的实际部署和限制。
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