世界上第一个具有永久监测功能的全电动智能完井系统,用于评估成熟注入井的注入性能

W. Sánchez, Iván Coronel, Edgar Mora, C. Giosa, M. Satizabal, J. Leal, P. Solórzano, L. Castañeda, Gabriel Mantilla, P. Nazarenko, Oscar Avella, Paul Joseph
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引用次数: 2

摘要

在稠油油田,传统的水驱方法会导致交换效率降低、注入水窜流、采收率低等问题。由于缺乏实时数据、注入剖面校准过程中的操作事故以及现有井干预措施的复杂性等其他关键因素,这些问题往往会变得更糟。在哥伦比亚某稠油油田的一口四层注水井中,采用了一种创新的解决方案,包括四个远程控制的智能电动阀和分布式光纤监控,以实时计算每个层的注入流量。该系统使作业者能够提高相关生产井的产油量,并消除无钻机干预。首次安装具有分布式光纤监控的全电动智能完井成功应用于一口复杂的现有注入井,没有发生HSE事故,也没有出现时间和成本偏差。经过一年的运行,该系统使相应生产井的产量提高了62%,节约了30%的运营成本。此外,完井设计改善了注入性能,这意味着系统需要更少的注入水来生产相同数量的油。由于采用了更高效的注入完井技术,并利用实时数据及时做出决策,所有这些成果都成为可能。此次实施的重要性在于,它证明了这种技术不仅解决了成熟油田提高采收率(EOR)策略的不同挑战,而且在石油产量、注入性能和降低运营成本方面带来了额外的价值。通过这种方式,该应用表明,在资本支出有限的情况下,在成熟的现有井中实施智能完井在经济上是可行的,而智能完井的初始投资通常是昂贵的。本文将介绍一种智能完井系统的实现,该系统使用永久性分布式光纤来监测4个独立层的注水情况。该文件还将详细介绍在成熟油田安装该技术的原因、井和技术选择、智能完井设计和安装。结果将与常规完井进行比较,后者依赖于无钻机干预来测量和调节每个层的注入流量。
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World First All-Electric Intelligent Completion System with Permanent Monitoring to Evaluate Injection Performance in a Mature Injector Well
Traditional waterflooding methods in heavy oil fields can lead to several problems including reductions of swapping efficiency, channeling of injected water, and low values of recovery factor. These problems are often made worse by other critical factors such as lack of real-time data, operational incidents during injection profile calibration, and complexity of interventions in the existing wells. An innovative solution was implemented in a four-zone injector well in a heavy oil field in Colombia consisting of four intelligent electric valves controlled remotely and distributed fiber optic monitoring to calculate injected flow per zone in real-time. This system allowed the operator to increase oil production in the associated producer wells and eliminate rig-less interventions. The first installation of an All-Electric intelligent completion with distributed fiber optic monitoring was successfully deployed in a complex existing injector well without HSE incidents nor deviations in time and cost. After one year of operation, the system increased production in corresponding producer wells by 62% and saved 30% of operational costs. Additionally, the completion design has improved the injection performance which means that the system requires less injected water to produce the same amount of oil. All these results were possible thanks to the use of a more efficient injection completion and the use of real-time data to make on-time decisions. The importance of this implementation is that it demonstrated that this type of technology not only solves different challenges of the Enhanced Oil Recovery (EOR) strategies of mature fields but also brings additional value in terms of oil production, injection performance, and reduction in operational costs. In this way, this application showed that an intelligent completion - usually expensive in terms of initial investment - is financially viable to implement in mature existing wells with limited CAPEX availability. This paper will present the implementation of an intelligent well completion system that uses permanent distributed fiber optics to monitor water injection in 4 independent zones. The document will also include details regarding the reasons to install this technology in a mature field, well and technology selection, intelligent completion design, and installation. Results will be compared to conventional completion for injector wells that depends on rig-less intervention to measure and regulate injected flow per zone.
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