注水井智能完井成功安装,提高油田开发水平

Eglier Yanez, M. Uijttenhout, M. Zidan, R. Salimov, S. Al-jaberi, A. Al-Shamsi, Amnah Al-Sereidi, M. Amer, Yousef Ahmed Alhammadi, A. Abdul-Halim, Giovani Caletti, Mustapha Adli, Yousif Hasan Al-Hammadi, Fahad Mustafa Al-Hosani
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引用次数: 1

摘要

在你的领域中加入“聪明”并不一定会增加额外的支出。ADNOC Offshore试用了一种新的完井设计,将层间控制阀(icv)应用于浅层油藏,将流入控制装置(icd)应用于深层油藏,这是该公司首次将两者应用于注水井。其目标是改善油藏管理,降低建井复杂性,实现成本优化的主要业务目标之一。本文涵盖了混合注入模式下的地下研究、详细的施工设计、完井部署、油井干预和整体井性能。根据一个非均质多油藏油田投产后两年的最新油藏数据,开展了一项多学科研究。该研究显示了用斜井射孔段代替上部水平泄水管的可能性。作者认为,为了克服油藏非均质性高和非选择性酸增产造成的压力枯竭不均等挑战,需要进行完井分段。作为评估的一部分,进行了模拟,以评估不同icv和icd组合下四个层的预期注入性能,以满足不同的注入场景。综合分析的结果是,采用了一种新的完井设计,将一个双水平注水井优化为一个智能完井,其中3个流入控制阀(icv)覆盖上部射孔区,14个流入控制装置(icd)带滑套穿过下部水平井储层。新的完井设计节省了成本,缩短了钻机时间,这表明所有相关团队、ADNOC海上和服务公司都非常积极地参与其中。可以成功地完成单井对高、低渗透层的完井要求。首先,通过在高渗透区域结合地表水注入控制,实现了早期突水的缓解;其次,也实现了低渗透油藏的注入目标。基于成功的结果和吸取的经验教训,这种新的完井设计能够优化注水计划,同时降低成本。因此,该项目已通过试验阶段,团队提出实施。
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Improving Field Development Through Successful Installation of Intelligent Completion on Water Injector Well
Including "smartness" in your field does not necessarily add additional expenditures. ADNOC Offshore piloted a new well completion design combining Interval Control Valves (ICVs) in the shallow reservoir and Inflow Control Devices (ICDs) in the deeper reservoir, both deployed in a water injector well for the first time in the company. The objectives were to improve reservoir management, reduce well construction complexity and achieve one of the main business targets of cost optimization. This paper covers the subsurface study, detailed well construction design, completion deployment, well intervention and overall well performance in commingled injection mode. A multi-disciplinary study was conducted based on updated reservoir data available after the first two years of production in a heterogeneous multi reservoir field. This study showed the possibility of replacing the upper horizontal drain by a deviated perforated section. The authors identified the need of completion compartmentalization to overcome challenges such as high reservoir heterogeneity and uneven pressure depletion enforced by non selective acid stimulation. As part of the evaluation, a simulation was performed to evaluate the expected injection performance across the four zones with different combinations of ICVs and ICDs in order to cater for different injection scenarios. As a result of the integrated analysis, a new well completion design was deployed to optimize a Dual Horizontal Water Injector into a Single Smart Completion with 3 Inflow Control Valves (ICVs) covering the upper perforated zones and 14 Inflow Control Devices (ICDs) with sliding sleeves across lower lateral reservoir. Cost savings and reduction of rig time was achieved with this new completion design demonstrating very pro-active participation from all involved teams, ADNOC Offshore and Service Companies. The requirements to complete high and low permeability zones in one single well can be successfully accomplished. Firstly, mitigation of early water breakthrough is achieved by incorporating surface water injection control in high permeable zones and secondly, the injection target for the low permeable reservoir is also delivered. Building on the successful results and captured lesson learnt, this new well completion design provided the capabilities to optimize the water injection plan while reducing costs. Therefore, the project has passed the trial phase and the team proposed its implementation.
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