Perforations Redefined: Measurements while Perforating using Digital Slickline

Mohamed Mohamed Elkordy, Bader Taqi Akbar, M. Patra, AbdulSamad Ahmad, Abdullah Abu Eida, Nasser Al Azmi, Abdulaziz Dashti, A. Stephens, H. Ayyad, Khaled Abdulrahim, A. Busaidy, G. Hernandez, Wahiba Grabssi
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Abstract

To reactivate wells that are not flowing, a common solution is to perforate any bypassed zone to bring the wells back to operation. If the completion does not allow for optimal interventions, i.e. running the perforating gun sized for the target interval, the consequences of a thru-tubing intervention must be evaluated based on cost, probability of success, risk and whether the potential results and the time savings of a rig are justifiable. In a well in Minagish Field of Kuwait, a combination of thru-tubing technologies was deployed for perforating a bypassed zone, reducing the cost of a rig workover, and maximizing the potential results. The conveyance method was selected in consideration of well access, cost, provision of positive depth correlation, and the capability to deploy the perforating guns thru tubing. Second, the perforating system was modeled with the reservoir parameters for its impact on well productivity. After the perforation parameters were obtained, the application of post-perforating dynamic underbalance was proposed to clean the perforations and reduce skin. Downhole measurements while perforating was combined with all the runs, including gamma ray, collar locator, pressure, temperature. A fast gauge was run in memory mode with the post perforating underbalance guns. The perforating operation was performed with a suite of measurements conveyed with digital slickline, enabling a cost-effective, informed intervention that reduced the operator's cost by USD 288,000 over a conventional rig-based operation. The combination of extra-deep penetrating shaped charges loaded a 2-1/8-in phased exposed carrier perforating guns system and the post-perforating cleanup system, restoring the well to a production of 1,500bbl/d. The application of digital slickline that provided downhole measurement while perforating was deployed for the first time in Kuwait. The use of productivity modeling for perforating proved to be a successful metric for decision making when selecting this intervention methodology. This approach saved the operator time and cost while cutting risks and maximizing the potential production restoration.
重新定义射孔:使用数字钢丝绳进行射孔测量
为了重新启动不流动的井,一种常见的解决方案是对任何被绕过的区域进行射孔,以使井恢复生产。如果完井不允许进行最佳干预,即在目标层段下入射孔枪尺寸,则必须根据成本、成功概率、风险以及钻机的潜在结果和节省的时间是否合理来评估过油管干预的后果。在科威特Minagish油田的一口井中,采用了一系列的过油管技术来射孔绕道区域,降低了钻机修井的成本,并最大限度地提高了潜在的效果。在选择传输方法时,考虑了井的进入、成本、提供的正深度相关性以及通过油管部署射孔枪的能力。其次,利用储层参数对射孔系统进行建模,分析其对油井产能的影响。在获得射孔参数后,提出利用射孔后动态欠平衡清洁射孔,减少表皮。射孔时的井下测量与所有趟入相结合,包括伽马射线、接箍定位器、压力、温度。射孔后欠平衡射孔枪采用记忆模式下入快速测量仪。射孔作业采用了一套数字钢丝绳传输的测量数据,实现了经济高效的干预措施,与传统的钻机作业相比,运营商的成本降低了28.8万美元。超深穿透聚能装药的组合,加载了一个2-1/8英寸的分段暴露载体射孔枪系统和射孔后清理系统,使该井的产量恢复到1500桶/天。在科威特首次应用了数字钢丝绳,在射孔时提供井下测量。事实证明,在选择这种干预方法时,使用射孔产能模型是一种成功的决策指标。这种方法节省了操作人员的时间和成本,同时降低了风险,并最大限度地提高了生产恢复的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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