Dynamic Production Surveillance Method Effect in a Gas Condensate Horizontal Wells

M. Klimov, R. Ramazanov, Nadir Husein, Vishwajit Upadhye, A. Drobot, A.Y. Bydzan, R. Gazizov
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Abstract

The proportion of hard-to-recover reserves is currently increasing and reached more than 65% of total conventional hydrocarbon reserves. This results in an increasing number of horizontal wells put into operation. When evaluating the hydrocarbon recovery efficiency in horizontal wells, and, consequently, the effectiveness of the development of gas condensate field, the key task is to evaluate the well productivity. To accomplish this task, it is necessary to obtain the reservoir fluid production profile for each interval. Conventional well logging methods with proven efficiency in vertical wells, in case of horizontal wells, will require costly asset-heavy applications such as coiled tubing and wireline conveyed production logging tools, and Y-tool bypass systems if pump is used. In addition, the logging data interpretation in the case of horizontal wells is less reliable due to the multiphase flow and variations of the fluid flow rate. The fluorescent -based nanomaterial production profiling surveillance technology can be used as a viable solution to this problem, which enables cheaper and more effective means of the development of hard-to-recover reserves. This technology assumes that tracers are placed downhole in various forms, such as marker tapes for lower completions, markers in the polymer coating of the proppant used for multi-stage hydraulic fracturing, and markers placed as fluid additive in fracturing fluids or matrix acidizing fluids during the production enhancement interventions. The fundamental difference between nanomaterial tracers production profiling and traditional logging methods is that the former offers the possibility to monitor the production at frac ports in the well for a long period of time with far less equipment and manpower, reduces HSE and operational risks and reduces operating cost.
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动态生产监测方法在凝析水平井中的应用效果
目前,难采储量占常规油气总储量的比重不断上升,已超过65%。这使得投入生产的水平井数量不断增加。在评价水平井油气采收率,进而评价凝析气田开发效果时,关键是要对水平井产能进行评价。为了完成这项任务,有必要获得每个层段的储层流体生产剖面。在直井中行之有效的常规测井方法,在水平井中,将需要昂贵的资产密集型应用,如连续油管和电缆输送生产测井工具,如果使用泵,则需要y型工具旁通系统。此外,由于多相流动和流体流量的变化,水平井测井资料解释的可靠性较低。基于荧光的纳米材料生产剖面监测技术可以作为解决这一问题的可行方案,它使开发难以开采的储量的手段更加廉价和有效。该技术假设示踪剂以各种形式放置在井下,例如下部完井的标记带,多级水力压裂支撑剂聚合物涂层中的标记,以及在增产干预期间作为压裂液或基质酸化液添加剂放置的标记。纳米示踪剂生产曲线分析与传统测井方法的根本区别在于,前者能够以更少的设备和人力长时间监测井中压裂端口的生产情况,降低了HSE和操作风险,降低了运营成本。
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