基于机器学习的钻井系统推荐:迈向最佳BHA和流体技术选择

Greg Skoff, F. Mahfoudh, C. Jeong, S. Makarychev-Mikhailov, O. Petryshak, V. Vesselinov, Crispin Chatar, Vijay Bondale, M. Devadas
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引用次数: 0

摘要

能源行业正在经历数字化转型,其目标包括提高运营效率和降低能源开采成本。数据科学和机器学习(ML)使钻井工程界能够为实现这些目标做出贡献。该公司开发了一种基于ml的数字解决方案,以帮助钻井工程师在井设计阶段选择最佳的底部钻具组合(BHA)和钻井液技术。传统上,这些选择依赖于邻井分析,这是一项人工且耗时的工作。作为替代方案,新的数字解决方案以web应用程序的形式推出,自动选择类似的邻井,并评估这些类似井的可用BHA和钻井液选择。web应用程序将这些选项显示给钻井工程师,他们现在可以根据数据做出充分的决策。为了支持新的数字解决方案,我们做了大量的工作来收集、清理全球运营数据,并将其准备到一个新的数据库中。该操作数据库包括钻头、马达动力部分、旋转导向系统、BHA配置和钻井液的选择决策和性能结果。在钻井工程师确定了计划钻进的参数后,在技术选择的背景下,使用基于多维距离的方法自动选择最相似的先前钻进。钻井工程师还可以根据在web应用程序中使用过滤器的经验微调偏移量选择。一旦确定了最相似的偏移量,就可以根据许多关键性能指标(kpi)对技术选择决策进行评分。这些kpi以及用户定义的权重决定了总体得分。最后,技术选择建议是基于总体得分和其他上下文数据,如本地可用性和成本。新的数字解决方案已被部署到全球钻井工程师团队中。定期举行反馈会议,开发团队使用这些反馈来快速迭代和改进用户体验。虽然当今的钻井工程师可以获得大量的数据和信息,但这些数据和信息往往不能以一种实用而有效的方式使用。新的解决方案将所有以前的钻井系统技术选择和结果都交给了钻井工程师,使他们能够做出最佳决策。这种方法展示了机器学习和创新的软件部署方法如何真正帮助人类决策过程,并成功实现数字化转型的目标。据我们所知,这是一种独特的钻井系统设计优化方法。该方法不仅是独一无二的,而且作为这项工作的一部分开发的数据库可能是业内最大的钻井作业数据库。本文介绍了项目的所有阶段,包括数据库创建、数据准备、ML模型的开发以及用户界面的创建和迭代的细节。最后,本文提出了这一努力的未来,作为公司愿景的一部分,成为我们客户选择的性能合作伙伴。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Machine Learning-Based Drilling System Recommender: Towards Optimal BHA and Fluid Technology Selection
The energy industry is undergoing a digital transformation, whose goals include increased operational efficiency and reduced energy extraction costs. Data science and machine learning (ML) are enabling the drilling engineering community to contribute to the success of these goals. An ML-based digital solution has been developed to assist the drilling engineer select an optimum bottomhole assembly (BHA) and drilling fluid technology during the well design phase. Traditionally, these selections depended on offset well analysis, which is a manual and time-consuming undertaking. As an alternative, the new digital solution, launched in the form of a web app, automatically selects similar offset wells, and evaluates the available BHA and drilling fluid options from those similar wells. The web app displays these options to the drilling engineer, who is now empowered to make fully informed data-driven decisions. To power the new digital solution, an extensive effort was made to gather, clean, and prepare global operational data into a new database. This operational database includes the selection decisions and performance results of drill bits, motor power sections, rotary steerable systems, BHA configurations, and drilling fluids. After the drilling engineer defines the parameters of the planned drilling run, a multidimensional distance-based approach is used to automatically select the most similar previous drilling runs within the context of the technology selection. The drilling engineer can also fine tune the offset selection based on experience using filters in the web app. Once the most similar offset runs are determined, the technology selection decisions are scored for numerous key performance indicators (KPIs). These KPIs, along with user-defined weights, drive the overall scores. Finally, technology selection recommendations are based on the overall scores and other contextual data such as local availability and cost. The new digital solution has been deployed to a global group of drilling engineers. Feedback sessions are held regularly, and the development team uses this feedback to rapidly iterate and improve user experience. While today's drilling engineers have access to a vast amount of data and information, it often cannot be used in a practical and efficient way. The new solution places all previous drilling system technology selection choices and results into the hands of the drilling engineers, allowing them to make their best decisions. This approach demonstrates how ML and innovative software deployment methods can truly assist the human decision-making process and succeed in accomplishing the goals of digital transformation. To our knowledge, this is a unique approach to drilling system design optimization. Not only is the approach unique, but the database developed as a portion of this effort is likely the largest drilling operations database within the industry. This paper presents all phases of the project, including the details of database creation, data preparation, development of the ML models, and the creation and iteration of the user interface. Finally, this paper presents the future of this effort as part of the company's vision to be our customers’ performance partner of choice.
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