Developing an Integrated Real-Time Drilling Ecosystem to Provide a One-Stop Solution for Drilling Monitoring and Optimization

Dingzhou Cao, Y. Ben, Chris James, Kate Ruddy
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引用次数: 3

Abstract

The paper provides a technical overview of an operator's Real-Time Drilling (RTD) ecosystem currently developed and deployed to all US Onshore and Deepwater Gulf of Mexico rigs. It also shares best practices with the industry through the journey of building the RTD solution: first designing and building the initial analytics system, then addressing significant challenges the system faces (these challenges should be common in drilling industry, especially for operators), next enhancing the system from lessons learned, and lastly, finalizing a fully integrated and functional ecosystem to provide a one-stop solution to end users. The RTD ecosystem consists of four subsystems as shown in architecture Figure 1. (I) The StreamBase RTD streaming system, which is the backbone of the ecosystem. It takes the real-time streaming log data as well as other contextual well data (for example, OpenWells), processes it through analytical models, generates results, and delivers them to the web-based user interface; (II) The analytics models, which include the Machine Learning (ML)/Deep Learning (DL) models, the physics-based models and the stream analytical/statistical models; (III) The digital transformation solution, which wasdesigned to address contextual well data digitization issues to enable real-time physics-based modeling. Contextual well data like bottom hole assemblies (BHAs) and casing programs are challenging to aggregate and deliver to models, as this data is often stored in locations across multiple systems and in various formats. The digital transformation applications are designed to fit into the drilling teams' workflows and collect this information during the course of normal engineering processes, enhancing both the engineering workflow and the data collection process; (IV) the cloud based ML pipeline, which streamlines the original ML workflows, as well as establishes an anomaly detection and re-training mechanism for ML models in production. Figure 1 RTD ecosystem architecture All of these subsystems are fully integrated and interact with each other to function as one system, providing a one-stop solution for real-time drilling optimization and monitoring. This RTD ecosystem has become a powerful decision support tool for the drilling operations team. While it was a significant effort, the long term operational and engineering benefits to operators designing such a real-time drilling analytics ecosystem far outweighs the cost and provides a solid foundation to continue pushing the historical limitations of drilling workflow and operational efficiency during this period of rapid digital transformation in the industry.
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开发集成的实时钻井生态系统,为钻井监测和优化提供一站式解决方案
本文提供了运营商实时钻井(RTD)生态系统的技术概述,该生态系统目前已开发并部署在美国所有陆上和墨西哥湾深水钻井平台上。它还通过构建RTD解决方案的过程与业界分享最佳实践:首先设计和构建初始分析系统,然后解决系统面临的重大挑战(这些挑战在钻井行业中应该是常见的,特别是对运营商来说),然后根据经验教训增强系统,最后完成一个完全集成和功能齐全的生态系统,为最终用户提供一站式解决方案。RTD生态系统由四个子系统组成,如图1所示。(1) StreamBase RTD流媒体系统,这是生态系统的支柱。它采用实时流测井数据以及其他相关井数据(例如OpenWells),通过分析模型对其进行处理,生成结果,并将其提供给基于web的用户界面;(II)分析模型,包括机器学习(ML)/深度学习(DL)模型、基于物理的模型和流分析/统计模型;(III)数字化转换解决方案,旨在解决相关井数据数字化问题,实现基于物理的实时建模。底部钻具组合(bha)和套管程序等相关井数据很难汇总并传递给模型,因为这些数据通常以不同格式存储在多个系统的不同位置。数字化转换应用程序旨在适应钻井队的工作流程,并在正常的工程过程中收集这些信息,从而增强工程工作流程和数据收集过程;(四)基于云的机器学习流水线,简化了原有的机器学习工作流程,并为生产中的机器学习模型建立了异常检测和再训练机制。图1 RTD生态系统架构所有这些子系统都完全集成在一起,并相互作用,作为一个系统,为实时钻井优化和监测提供一站式解决方案。RTD生态系统已成为钻井作业团队的强大决策支持工具。虽然这是一项巨大的努力,但设计这样一个实时钻井分析生态系统对运营商的长期运营和工程效益远远超过成本,并为在行业快速数字化转型时期继续突破钻井工作流程和作业效率的历史限制提供了坚实的基础。
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