成功的优化路线图提高了大位移分支井8.5英寸分支段的钻井性能

M. M. Algaiar, Hichem Horra, Moustafa Farhat, Ragab Tolba, Mohamed Benzeghiba
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摘要

为满足当地能源消耗和全球需求的增长,中国在提高油气采收率方面投入了大量精力。为了提高中东某大型油田的产量和最终采收率,为了达到最大油藏接触面(MRC),需要在长水平多边井中进行大位移钻井(ERD),但大位移钻井需求的增加带来了许多钻井挑战和困难。设计ERD井的挑战是多方面的,如轨迹控制、井眼防撞、井眼清洗效率、高扭矩和高阻力、差压卡钻、井筒稳定性、随钻测井(LWD)测井质量和长循环时间。考虑到这一点,作业公司和服务团队制定了钻井优化路线图,以最大限度地提高钻井性能。优化路线图包括改进的轨迹设计、钻柱设计、钻井液和系统水力学设计、规划阶段的地下地质力学建模,以及执行阶段的实时地层评估、井眼清洁、扭矩和阻力监测以及钻柱振动管理。在优化计划的第一个优化阶段,研究了4英寸和5英寸锥形钻柱的开发,而不是完整的5英寸钻柱,以降低钻井扭矩及其相关的起下钻行为,使用这种方法成功降低了钻井扭矩,但井外可钻性变得更加困难。第一阶段的结果是,除了使用油基泥浆(OBM)润滑剂(OMNI-LUBETM)外,还使用了完整的5英寸钻杆,从而将钻井扭矩降低了20-25%。在第二次优化阶段,与4英寸钻杆相比,可钻性有所提高,但在一些分支段仍然面临一些问题。在最后的优化阶段,工程和运营团队在钻井底部钻具组合(BHA)的顶部引入了狗腿扩眼器工具,该工具显著改善了起下钻行为,并使钻段的钩载更加平稳。整体钻井系统设计和优化方法的实施帮助实现了一个又一个分支的新性能记录。优化路线图在最具挑战性的钻井环境中提供了经过验证的性能。本文介绍了关键技术挑战、性能优化路线图、作业执行以及钻井性能的井后评价。
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Successful Optimization Roadmap Enhanced the Drilling Performance in the 8.5 Inch Lateral Sections of Extended Reach Multilateral Wells
Great efforts are invested in improving oil and gas reservoir recovery to meet the rise in local energy consumption and global demand. To improve the production and ultimate recovery of a major oil field in the Middle East, extended-reach drilling (ERD) is executed in wells with long horizontal multilaterals to achieve maximum reservoir contact (MRC), the increase in ERD wells demand led to many drilling challenges and difficulties. The challenges in designing ERD wells are multiple, such as trajectory control, well collision avoidance, hole cleaning efficiency, high torque & drag, differential sticking, wellbore stability, Logging-while-drilling (LWD) log quality and long circulating hours. In recognition of this, the dedicated operator and service team developed a drilling optimization roadmap that addresses the drilling challenges at the greatest performance impact. The optimization roadmap comprises enhanced trajectory design, drillstring design, drilling fluids and system hydraulics design, and subsurface geomechanical modelling in the planning phase, in addition to realtime formation evaluation, hole cleaning and torque and drag monitoring, and drillstring vibrations management in the execution phase. The exploitation of 4 inch and 5 inch tapered drillstring as opposed to complete 5 inch drillstring for drilling torque reduction and its related tripping behavior was explored on the first Optimization stage of the optimization plan, using this approach successfully reduced drilling torque, but the tripability out of hole became problematic and more difficult. The first stage outcome called for utilizing complete 5 inch drillpipe string in addition to oil-based mud (OBM) lubricant (OMNI-LUBETM) that resulted in 20-25% reduction of the drilling torque. Tripability improved compared to 4 inch drill pipe in the second optimization stage, but still facing some issues in few laterals. On the final optimization stage, the engineering & operations team introduced the Dog Leg Reamer tool on top of the drilling bottomhole assembly (BHA) which resulted in a significant improvement in the tripping behavior in addition to a smoother hookload along in the drilled interval. The implementation of the holistic drilling system design and optimization methodologies helped achieving new performance records, lateral after lateral. The optimization roadmap delivered a proven performance in the most challenging drilling environments. The key technical challenges, performance optimization roadmap, job execution, and post well evaluation of the drilling performance are presented in this paper.
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