一种用于提高采收率聚合物流体中聚合物降解评价的新型粘度传感平台

Miguel Gonzalez, Tim Thiel, Nathan St. Michel, J. Harrist, E. Buzi, H. Seren, S. Ayirala, Lyla Maskeen, A. Sofi
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引用次数: 1

摘要

在提高采收率(EOR)过程中,聚合物的降解对聚合物驱的采收率有很大的影响。在现场,很少有实际的解决方案可以对地面的EOR聚合物流体进行质量控制/保证(QA/QC),也没有解决方案可以在井下进行测量。在这里,我们介绍了一种小型化传感器的开发,该传感器可以通过测量EOR聚合物流体的粘性特性来检测聚合物降解的开始。该装置在一次聚合物驱作业中采集的样品上进行了测试。我们将其集成到井场便携式系统中,并将其集成到无缆测井工具中,以实现经济高效的井下常规测量。传感器是基于毫米大小的压电音叉谐振器。通过能量耗散测量流体的粘度和密度,通过振动谱测量流体的共振频率。该装置是专门设计用于高盐度聚合物流体的。对从单井聚合物驱试验中收集的样品进行了测试和验证。然后设计了一种小型化的电气测量平台,可用于地面作业,也可用于紧凑型非系留测井工具,以实现快速、廉价的井下部署。这些设备最初在实验室进行校准,然后对从现场收集的样品进行测试。在注入表面活性剂-聚合物溶液之前,这两种现场收集的溶液分别用于预冲洗地层,并作为聚合物锥度来驱动注入的表面活性剂-聚合物溶液。所得到的粘度值与标准实验室测量值非常吻合。因此,用微型装置测量的聚合物分子量降低引起的粘度变化可以用来评估是否发生了降解。然后,在现场使用的类似聚合物流体中对小型化的电气测量平台进行了测试,并获得了类似的结果。本文介绍的平台为现场聚合物降解检测提供了一个简单、经济、用户友好的平台,从而在成本高昂的聚合物驱作业中提供有价值的实时信息。
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A New Viscosity Sensing Platform for the Assessment of Polymer Degradation in EOR Polymer Fluids
Polymer degradation during Enhanced Oil Recovery (EOR) can have large impact on recovery rates during polymer flooding. In the field, few practical solutions exist to perform quality control/assurance (QA/QC) on EOR polymer fluids at surface and no solutions exist for measurements downhole. Here, we present the development of a miniaturized sensor that can be used to detect the onset of polymer degradation by measuring the viscous properties of EOR polymer fluids. The device was tested on samples collected from a polymer flooding operation. We describe its integration into wellsite portable systems and into an untethered logging tool for cost-effective routine measurements downhole. The sensors are based on millimeter-sized piezoelectric tuning fork resonators. The viscosity and density of the fluids was measured from the energy dissipation and the resonant frequency obtained from their vibrational spectra. The devices were specially designed for use in high-salinity polymer fluids. They were tested and validated on samples collected from a single well polymer flood trial. A miniaturized electrical measurement platform was then designed for use at surface in the field and for use in a compact untethered logging tool for quick and inexpensive deployment downhole. The devices were initially calibrated in the laboratory and then tested on samples collected from the field. These two field-collected solutions were used to preflush the formation before injecting surfactant-polymer solution and as a polymer taper to drive the injected surfactant-polymer solution, respectively. The obtained viscosity values correlated very well with those obtained from standard laboratory measurements. Therefore, the changes in viscosity due to reduction in the molecular weight of the polymer, as measured with the miniature devices, can be used to assess whether degradation has taken place. A miniaturized electrical measurement platform was then tested in comparable polymer fluids for use in the field and obtained comparable results. The platforms described here provide a simple, cost-effective, and user-friendly platform for the detection of polymer degradation in the field, thus providing valuable information in real-time during costly polymer flooding operations.
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