Drilling Automation: The Step Forward for Improving Safety, Consistency, and Performance in Onshore Gas Drilling

E. Gomez, E. Ombe, B. Goodkey, R. Carvalho
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引用次数: 1

Abstract

In the current oil and gas drilling industry, the modernization of rig fleets has been shifting toward high mobility, artificial intelligence, and computerized systems. Part of this shift includes a move toward automation. This paper summarizes the successful application of a fully automated workflow to drill a stand, from slips out to slips back in, in a complex drilling environment in onshore gas. Repeatable processes with adherence to plans and operating practices are a key requirement in the implementation of drilling procedures and vital for optimizing operations in a systematic way. A drilling automation solution has been deployed in two rigs enabling the automation of both pre-connection and post-connection activities as well as rotary drilling of an interval equivalent to a typical drillpipe stand (approximately 90 ft) while optimizing the rate of penetration (ROP) and managing drilling dysfunctionalities, such as stick-slip and drillstring vibrations in a consistent manner. So far, a total of nine wells have been drilled using this solution. The automation system is configured with the outputs of the drilling program, including the drilling parameters roadmap, bottomhole assembly tools, and subsurface constraints. Before drilling every stand, the driller is presented with the planned configuration and can adjust settings whenever necessary. Once a goal is specified, the system directs the rig control system to command the surface equipment (draw works, auto-driller, top drive, and pumps). Everything is undertaken in the context of a workflow that reflects standard operating procedures. This solution runs with minimal intervention from the driller and each workflow contextual information is continuously displayed to the driller thereby giving him the best capacity to monitor and supervise the operational sequence. If drilling conditions change, the system will respond by automatically changing the sequence of activities to execute mitigation procedures and achieve the desired goal. At all times, the driller has the option to override the automation system and assume control by a simple touch on the rig controls. Prior to deployment, key performance indicators (KPI), including automated rig state-based measures, were selected. These KPIs are then monitored while drilling each well with the automation system to compare performance with a pre-deployment baseline. The solution was used to drill almost 60,000 ft of hole section with the system in control, and the results showed a 20% improvement in ROP with increased adherence to pre-connection and post-connection operations. Additionally, many lessons were learned from the use and observation of the automation workflow that was used to drive continuous improvement in efficiency and performance over the course of the project. This deployment was the first in the region and the system is part of a comprehensive digital well construction solution that is continuously enriched with new capabilities. This adaptive automated drilling solution delivered a step change in performance, safety, and consistency in the drilling operations.
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钻井自动化:提高陆上天然气钻井的安全性、一致性和性能
在当前的石油和天然气钻井行业,钻井车队的现代化已经转向高机动性、人工智能和计算机化系统。这种转变的一部分包括向自动化的转变。本文总结了在复杂的陆上天然气钻井环境中,从卡瓦钻到卡瓦钻的全自动化工作流程的成功应用。遵循计划和操作实践的可重复过程是实施钻井程序的关键要求,也是以系统方式优化作业的关键。钻井自动化解决方案已在两台钻机上部署,实现了连接前和连接后活动的自动化,以及相当于典型钻杆架(约90英尺)的旋转钻井,同时优化了钻速(ROP),并以一致的方式管理钻井功能障碍,如粘滑和钻柱振动。到目前为止,共有9口井使用了该解决方案。自动化系统配置了钻井程序的输出,包括钻井参数路线图、井底组合工具和地下约束条件。在钻进每个支架之前,司钻会看到规划的配置,并可以根据需要调整设置。一旦指定了目标,系统就会指示钻机控制系统指挥地面设备(抽拔设备、自动司钻、顶驱和泵)。一切都是在反映标准操作程序的工作流上下文中进行的。该解决方案只需最少的司钻干预即可运行,并且每个工作流程上下文信息都连续显示给司钻,从而使司钻能够最好地监控和监督作业顺序。如果钻井条件发生变化,系统将通过自动改变活动顺序来执行缓解程序并实现预期目标。在任何时候,司钻都可以选择覆盖自动化系统,并通过简单的触碰钻机控制装置来进行控制。在部署之前,需要选择关键性能指标(KPI),包括基于钻机状态的自动化测量。然后,在每口井的钻井过程中,通过自动化系统对这些kpi进行监测,将性能与部署前的基线进行比较。在控制系统的情况下,该解决方案钻了近60000英尺的井段,结果表明,ROP提高了20%,连接前和连接后作业的依从性都有所提高。此外,从自动化工作流程的使用和观察中获得了许多经验教训,用于在项目过程中推动效率和性能的持续改进。这是该地区的首次部署,该系统是全面的数字造井解决方案的一部分,该解决方案不断增加新的功能。这种自适应自动钻井解决方案在钻井作业的性能、安全性和一致性方面实现了阶段性的改变。
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