Using Edge Computing and Autonomous Control to Manage and Optimize Well Performance in Cyclic Steam Stimulation Operations.

Zeshan Hyder, Trevor Holding, Brett Garrison
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Abstract

The age of Production 4.0 has made possible the collection of large amounts of data. Proper analysis and eventual effective utilization of this data is still going through its "trial and error" period. This is where autonomous control systems can utilize the information being gathered continuously and assist in making real-time decisions that would optimize well production, reduce surface and sub-surface equipment wear, maintain production sustainability (reduce well downtime) and provide economic benefit, all without human intervention. The controller agnostic Edge IoT platform provided "out-of-the-box" and customized autonomous control to analyze daily average operational data and make recommendations and implement set point changes to manage well optimization and operations. A multitude of different instrumentation was also utilized to determine how additional data would assist in further optimization of well operations and well management through exception. Additional instrumentation included a different controller than the incumbent in the field along with wired and wireless load cells, inclinometers and a regenerative Variable Frequency Drive (VFD). The observation period of the pilot lasted approximately 7 months which encompassed the majority of the active production cycle of the Cyclic Steam Stimulation (CSS) operated 24 well pad. 16 wells had the Edge IoT platform installed on them whereas the remaining 8 were "control" wells which were managed as per standard operating procedures (SOP) by operations. Analysis of data from dynamometer cards, average surface pumping unit speed and average pump fillage in relation to target speed, target pump fillage and associated minimum and maximum limits, led to implementation of set point recommendations. Field results indicated that the Edge IoT platform was successful in making real-time decisions that led to increased production. Advantages and challenges were both observed in regard to different instrumentation piloted. The next generation Edge IoT platform with its system analysis methods, high frequency data access, customizable autonomous control logic and real-time alerts, allows for better data granularity and optimization of well production and operations.
利用边缘计算和自主控制来管理和优化循环蒸汽增产作业中的油井性能。
生产4.0时代使得收集大量数据成为可能。对这些数据的适当分析和最终有效利用仍处于“试错”阶段。在这种情况下,自主控制系统可以利用不断收集的信息,帮助做出实时决策,从而优化油井生产,减少地面和地下设备的磨损,保持生产的可持续性(减少井的停机时间),并提供经济效益,所有这些都无需人工干预。与控制器无关的Edge物联网平台提供了“开箱即用”和定制的自主控制,可以分析每日平均运行数据,并提出建议并实施设定点更改,以管理油井优化和运营。此外,还使用了多种不同的仪器来确定额外的数据如何有助于进一步优化井作业和井管理。额外的仪器包括一个不同于现场现有的控制器,以及有线和无线称重传感器、倾斜仪和再生变频驱动器(VFD)。该试验的观察期持续了大约7个月,其中包括了24口井的循环蒸汽增产(CSS)的大部分有效生产周期。16口井安装了Edge物联网平台,其余8口井为“控制”井,由作业公司按照标准作业程序(SOP)进行管理。通过对测功机卡上的数据、平均地面抽油机速度和平均泵注量与目标速度、目标泵注量以及相关的最小和最大限制的关系进行分析,得出了设定值建议的实施结果。现场结果表明,Edge物联网平台成功地做出了实时决策,从而提高了产量。对于不同的试验仪器,我们都观察到了优势和挑战。下一代Edge物联网平台具有系统分析方法、高频数据访问、可定制的自主控制逻辑和实时警报,可以提供更好的数据粒度,并优化油井生产和运营。
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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