一种基于颗粒凝胶的堵水系统

V. Lafitte, M. Panga, Nirupama A Vaidya, Max Nikolaev, P. Enkababian, L. K. Teng, Haiyan Zhao
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引用次数: 5

摘要

采出水是石油公司关注的主要问题,因为它不仅涉及到处理地面水的高成本,而且涉及到与管柱结垢和腐蚀有关的问题,以及碳氢化合物产量的总体下降。为每种情况找到正确的解决方案是一项挑战,因为没有一种解决方案适合所有情况。化学堵水技术比机械堵水技术成本更低,而且可以提供更有针对性和定制化的设计,但通常会带来更高的操作风险。基于单一颗粒添加剂的新型水控制系统在实验室条件下进行了广泛的评估,然后成功地在现场实施。该流体很容易使用传统的现场混合器制备,并且在泵入地层后不需要固化,因此与大多数传统的堵水系统相比,节省了时间和成本。在实验室中,使用滤失仪、渗透率仪和地层响应测试仪,在各种地层渗透率和注入条件下对流体进行了评估。考察了该流体在不同盐度和浓度下的粘度和稳定性。总的来说,研究人员发现,新的流体系统在封堵大于50 md的地层时非常有效。这些结果与封堵机制的性质相一致,该机制仅依赖于物理孔隙封堵。该系统可以根据地层渗透率进一步调整。在油饱和的情况下,与单相、水饱和岩心相比,颗粒系统的穿透能力受到限制。
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A Particulate Gel Based System for Water Shut-Off Applications
Water production is a major concern for oil companies because it involves not only a high cost for handling the water on surface, but also issues related to scale and corrosion in tubulars, and an overall decrease of hydrocarbon production. Finding the right solutions for each case is a challenge because there is no one solution that fits all. Chemical treatments for water shutoff are cheaper than mechanical treatments and can offer more targeted and customized design, but they often come with higher operational risks. A new water control system based on a single particulate additive was extensively evaluated under laboratory conditions and then successfully implemented in the field. The fluid is easy to prepare using traditional field mixers and does not need curing after it is pumped into the formation, thus saving time and cost compared to most conventional water shutoff systems. The fluid was evaluated in the laboratory with a wide range of formation permeabilities and injection conditions using the fluid loss apparatus, permeameter, and formation response tester. The viscosity and stability of the fluid in different water salinity and concentrations were also investigated. Overall, it was found that the new fluid system was very efficient in shutting-off formations greater than 50 md up to a few darcies. Those results were consistent with the nature of the plugging mechanism, which relies on physical pore plugging alone. The system could be further tuned depending on the formation permeability. In the presence of oil saturation, the penetration of the particulate system was found limited as compared to a single-phase, water-saturated core.
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