Methane Emissions Quantification and Resulting Methane Emissions Reduction in the Permian Basin Enabled by Automated Unmanned Systems

Jason Churchill, Brenda Wise, Iain Cooper, Brendan Smith
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Abstract

Traditional methods for monitoring emissions from production operations have typically used optical gas imaging cameras or Method 21 systems, based on an intermittent basis to determine and document methane gas leaks, which are then subsequently identified for repair under the US Code of Federal Regulations (2017). These optical gas imaging emissions monitoring surveys can have a subjective bias, are highly conditional on the skill of the camera operator, and are an inexact method of measuring the quantity of the leak rate. With a renewed industry emphasis on methane emissions measurement and reduction, this paper describes a case study using a high-sensitivity sensor technology (laser absorption spectrometry) specifically targeting methane emissions, the unique capabilities engendered by its deployment on unmanned aerial systems (UAS), the leveraging of automation in field-operation and data analysis, and the system’s successful utilizationin enabling emissions limitations over several production sites in the Permian Basin. The use of automation enabled categorization of the leak type and intensity, and triage according to leak rate, facilitating prompt remedial action and directly limiting emissions. By automating the comprehensive flight paths specific to equipment groups (e.g., compressors, tanks, and flares), targeted repeat surveys confirmed that specific leaks were fixed, emphasizing a general downward trend in overall site- and asset-level emissions. These surveys were completed in 22.5 minutes, on average, at each of the five sites. Additionally, the use of high-resolution UAS-generated orthomosaic maps enabled the direct placement of emissions data into the context of the operations at the time of the survey, facilitating the generation of automated actionable reports, helping direct repair teams, and resulting in effective and necessary fixes. Furthermore, the campaign validated that following the set up of the initial survey, subsequent regular, repeat surveys could be commissioned at the “push of a button,” yielding reliable, actionable emissions data, with a direct impact on both environmental (6% reduction in emissions) and financial impact.
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自动化无人系统实现二叠纪盆地甲烷排放量化并减少甲烷排放
监测生产作业排放的传统方法通常使用光学气体成像摄像机或Method 21系统,基于间歇性的基础来确定和记录甲烷气体泄漏,然后根据美国联邦法规(2017)确定进行修复。这些光学气体成像排放监测调查可能有主观偏差,高度依赖于相机操作员的技能,并且是测量泄漏率数量的不精确方法。随着行业对甲烷排放测量和减少的重新重视,本文描述了一个案例研究,使用高灵敏度传感器技术(激光吸收光谱法)专门针对甲烷排放,其在无人机系统(UAS)上部署所产生的独特能力,在现场操作和数据分析中利用自动化,该系统在二叠纪盆地的几个生产基地成功地实现了排放限制。使用自动化系统可以对泄漏类型和强度进行分类,并根据泄漏率进行分类,以便迅速采取补救措施并直接限制排放。通过自动化特定于设备组(如压缩机、储罐和照明弹)的综合飞行路径,有针对性的重复调查确认了特定泄漏是固定的,强调了总体现场和资产水平排放的总体下降趋势。这些调查平均在22.5分钟内完成,在五个地点。此外,使用高分辨率的uas生成的正射影图,可以在调查时将排放数据直接放置到作业环境中,促进自动生成可操作报告,帮助指导维修团队,并进行有效和必要的修复。此外,该活动验证了在初始调查建立之后,后续的定期、重复调查可以在“按下按钮”的情况下进行,产生可靠的、可操作的排放数据,对环境(减少6%的排放量)和财务影响都有直接影响。
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