电气完井系统的性能和健康监测,预测和应急,目的设计

Mihitha Nutakki, M. Faur, D. Viassolo, I. Gour
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引用次数: 0

摘要

电气智能完井系统是为油藏管理和井内不同区域的生产控制而设计的。作业条件将系统内的工具(以下简称“工作站”)暴露在高温、高压、气体和砂粒等恶劣条件下。随着时间的推移,暴露在这样的条件下可能导致组件、模块、工作站或系统故障,从而可能导致延迟生产或非生产时间。为了提高系统的可靠性,系统的井下和地面组件都配备了传感器。这种系统获取和传输与系统、模块和组件的健康状况相关的数据的能力是一种新颖的方法。获取的数据通过基于云的物联网(IoT)框架传输,用于站点健康监测和健康退化预测。高频率的数据采集与大量的站点相结合,可以导致巨大的数据量。手动监控和处理大规模数据可能变得非常低效和难以管理,因此需要开发智能算法来处理数据,以做出可操作的决策并坚持可持续的工作流程。本文介绍了利用井下电子设备的历史健康数据,通过基于云的架构建立的数据管道,用于自动化监测、仪表板创建和电动马达执行器(EMA)模块的健康预测。此外,还讨论了一种由特征工程、事件(驱动)提取和监督机器学习算法组成的预测方法,并通过示例数据集和结果进行了说明。
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Performance and Health Monitoring, Prognostics and Contingency for Electrical Completion Systems, Designed on Purpose
Electrical intelligent completion systems are designed for reservoir management and production control of different zones within a well. The operating conditions expose the tools (hereinafter referred to as "stations") within the system to harsh conditions—high temperatures, high pressures, gas, and sand particles. Over time, exposure to such conditions can lead to component, module, station, or system failure, resulting in the possibility of deferred production or nonproductive time. To improve system reliability, the downhole and surface components of the system are equipped with sensors. The capability of such systems to acquire and transmit data related to the health of the system, its modules, and its components is a novel approach. Acquired data is transmitted through a cloud-based Internet of Things (IoT) framework for station health monitoring and health degradation predictions. The high frequency of data acquisition in combination with a large number of stations can lead to huge volumes of data. Manual monitoring and processing of large-scale data can become very inefficient and unmanageable and consequently, there is a need to develop intelligent algorithms for processing data to make actionable decisions and to adhere to a sustainable workflow. This paper describes the data pipeline established through cloud-based architecture for automating the monitoring, dashboard creation, and health prediction for the electric motor actuator (EMA) module, using historical health data of the downhole electronics. In addition, a predictive approach consisting of feature engineering, event (actuation) extraction, and supervised machine learning algorithms is discussed and illustrated through example data sets and results.
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