利用ESP安装生产管柱的创新方法,避免多级压裂水平井产能受损

M. Aftab, Kashif Amjad, Ayman Elmansour, Animekh Talukdar, Ahmed Rashed AlHanaee, Tarek Mohamed El Sonbaty
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摘要

通常,致密储层需要水力压裂来提高和维持油气产量。然而,压裂作业要求压裂管柱具有更大的内径(ID),以减少水力压裂作业中的摩擦损失。该管柱ID可能不适合在生产阶段提供最佳的垂直举升性能(VLP),特别是在油井中。因此,需要将压裂管柱替换为较小ID的生产管柱。有时,由于产水量不断增加和油藏压力不断下降,人工举升对于解决未来的VLP问题也变得至关重要。由于压井作业,完井作业通常会对储层造成损害,而在常规的碳酸盐岩储层中,可以通过基质增产来消除这种损害。然而,在水力压裂致密的碳酸盐岩和砂岩储层中,地层损伤的清除是困难的。预防措施对于避免产能下降至关重要,特别是在水力压裂油藏中。提出了不同的预防方案,并对其优缺点进行了综述。经过全面的研究和风险评估,对完井计划进行了创新修改,并最终确定。该计划包括配备电潜泵(ESP)的生产管柱,以提高VLP。该完井提供了全可达性的修井作业,将来可能需要进行储层监测和监视。进行了全面的生产测试,以评估和比较修井前后的测试结果。测试结果表明,在修井过程中通过隔离储层段避免了对储层产能的损害。本文总结了完井设计过程、选择标准、挑战以及设计和执行阶段的经验教训。该技术将为在水力压裂油藏中安装生产管柱/电潜泵提供指导,同时不会影响产能。经过改进的设计,储层与井筒隔离,ESP完井作业成功完成,没有压井。在储层和井筒之间建立连通之前,就可以实现欠平衡状态。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An Innovative Approach to Install Production String with ESP to Avoid Productivity Impairment in Multistage Fractured Horizontal Well
Generally, tight reservoirs require hydraulic fracturing to enhance and sustain hydrocarbon production. However, fracturing requires frac string with bigger Internal Diameter (ID) to minimize frictional losses during hydraulic fracturing operation. This string ID may not be suitable to provide optimum Vertical Lift Performance (VLP) during production phase, particularly in oil wells. Therefore, it is required to replace the frac string with production string of smaller ID. Occasionally, artificial lift also becomes essential to overcome VLP issues in future due to progressive water production and declining reservoir pressure. Completion replacement often causes reservoir damage due to killing operation, which can be removed in conventional carbonate reservoirs by matrix stimulation. However, formation damage removal is difficult in hydraulically fractured tight carbonate and sandstone reservoirs. Preventive measures become essential to avoid productivity impairment particularly in hydraulically fractured reservoirs. Different preventative options are proposed and reviewed to isolate reservoir with their advantages and disadvantages. After comprehensive studies and risk assessments, an innovative modification in the completion plan was introduced and finalized. This plan includes production string with Electrical Submersible Pump (ESP) to improve VLP. This completion provides full accessibility intervention job, which may be required for reservoir monitoring and surveillance in future. A comprehensive production test is performed to evaluate and compare the testing results of pre and post workover. Testing results show there is no impairment in productivity of the reservoir, which is avoided in workover process by isolating reservoir section. This paper summarizes the completion design process, selection criteria, challenges, and lessons learnt during design and execution phases. This technique will provide the guidelines for installation of the Production string/ESP in hydraulically fractured reservoir without productivity impairment. With modified design, the reservoir is isolated from wellbore and completion with ESP is run successfully without killing reservoir section. Underbalance conditions are achieved prior to establishing communication between reservoir and wellbore.
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