Inline Drilling Fluid Property Measurement, Integration, and Modeling to Enhance Drilling Practice and Support Drilling Automation

S. Roy, S. Kamal, Richard Frazier, Ross Bruns, Yahia Ait Hamlat
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引用次数: 2

Abstract

Frequent, reliable, and repeatable measurements are key to the evolution of digitization of drilling information and drilling automation. While advances have been made in automating the drilling process and the use of sophisticated engineering models, machine learning techniques to optimize the process, and lack of real-time data on drilling fluid properties has long been recognized as a limiting factor. Drilling fluids play a significant function in ensuring quality well construction and completion, and in-time measurements of relevant fluid properties are key to automation and enhancing decision making that directly impacts well operations. This paper discusses the development and application of a suite of automated fluid measurement devices that collect key fluid properties used to monitor fluid performance and drive engineering analyses without human involvement. The deployed skid-mounted devices continually and reliably measure properties such as mud weight, apparent viscosity, rheology profiles, temperatures, and emulsion stability to provide valuable insight on the current state of the fluid. Real-time data is shared with relevant rig and office- based personnel to enable process monitoring and trigger operational changes. It feeds into real-time engineering analyses tools and models to monitor performance and provides instantaneous feedback on downhole fluid behavior and impact on drilling performance based on current drilling and drilling fluid property data. Equipment reliability has been documented and demonstrated on over 30 wells and more than 400 thousand ft of lateral sections in unconventional shale drilling in the US. We will share our experience with measurement, data quality and reliability. We will also share aspects of integrating various data components at disparate time intervals into real-time engineering analyses to show how real-time measurements improve the prediction of well and wellbore integrity in ongoing drilling operations. In addition, we will discuss lessons learned from our experience, further enhancements to broaden the scope, and the integration with operators, service companies and other original equipment manufacturer in the domain to support and enhance the digital drilling ecosystem.
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在线钻井液性能测量,集成和建模,以提高钻井实践和支持钻井自动化
频繁、可靠、可重复的测量是钻井信息数字化和钻井自动化发展的关键。虽然在钻井过程自动化和复杂工程模型的使用方面取得了进展,但机器学习技术优化过程以及缺乏钻井液性质的实时数据一直被认为是限制因素。钻井液在保证油井建设和完井质量方面发挥着重要作用,及时测量相关流体特性是实现自动化和提高决策能力的关键,这直接影响到油井的运行。本文讨论了一套自动化流体测量装置的开发和应用,该装置可以收集用于监测流体性能和驱动工程分析的关键流体特性,而无需人工参与。安装在滑橇上的设备可以持续可靠地测量泥浆重量、表观粘度、流变性、温度和乳液稳定性等特性,从而对流体的当前状态提供有价值的信息。实时数据与相关的钻井平台和办公室人员共享,以实现过程监控和触发操作变更。它为实时工程分析工具和模型提供数据,以监测性能,并根据当前的钻井和钻井液性质数据提供井下流体行为和对钻井性能的影响的即时反馈。设备的可靠性已经在美国非常规页岩钻井的30多口井和40多万英尺的水平段中得到了证明。我们将分享我们在测量、数据质量和可靠性方面的经验。我们还将分享将不同时间间隔的各种数据组件集成到实时工程分析中的各个方面,以展示实时测量如何在正在进行的钻井作业中提高对井和井筒完整性的预测。此外,我们将讨论从我们的经验中吸取的教训,进一步扩大范围,以及与该领域的运营商、服务公司和其他原始设备制造商的整合,以支持和增强数字钻井生态系统。
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