纳米颗粒驱油工艺在库尔德斯坦地区碳酸盐岩中的适用性:界面张力和润湿性的实验研究

Ararat Rahimy, Maha Raouf Hamoudi, Akram H. A. Al-Hiti, Ramyar Suramairy
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摘要

长期以来,提高采收率(EOR)一直被证明是一种很好的方法,可以调动二次采油方法中通过和毛细管捕获的剩余油。化学提高采收率方法提高了微观和宏观效率,最终提高了整体采收率。然而,表面活性剂的吸附速率、耐高温和耐盐性低是导致化学驱不切实际和不经济的一些因素。近年来,纳米技术在提高采收率方面的应用已经取得了一些良好的成果。本研究通过薄片分析、x射线衍射、x射线荧光、界面张力和接触角测量等一系列测试,探讨了纳米颗粒驱油在Pilaspi组碳酸盐岩中的适用性。结果表明,碳酸盐岩以方解石(CaCO3)为主,少量石英和白云石。通过界面张力(IFT)测量,计算出二氧化硅和氧化铝纳米流体在轻油中的界面张力分别降低了27%和42%,在重油中的界面张力分别降低了43%和49%。接触角测量显示,0.25 wt. %的氧化铝纳米流体将轻质和稠油老化薄片表面的接触角从169◦和115◦降低到近119◦和78◦。另一方面,0.25 wt. %的二氧化硅纳米颗粒将两种薄片类型的接触角分别降低到129◦和80◦左右。
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Applicability of Nanoparticle Flooding Process in a Carbonate Rock of Kurdistan Region: Experimental Investigation of Interfacial Tension and Wettability
Enhanced oil recovery (EOR) has long proven to be a good method to mobilize the residual oil that is by passed and capillary trapped by secondary recovery methods. Chemical EOR methods enhance the microscopic and macroscopic efficiency, and ultimately the overall oil recovery is improved. However, the adsorption rate of the surfactant, low resistance to high temperature and salinity are some of the factors that would turn chemical flooding impractical and uneconomic in many cases. Lately, the application of nanotechnology in enhanced oil recovery has showcased some good and prolific results in terms of incremental oil recovery. In this study, the applicability of Nanoparticle flooding in carbonate rocks of Pilaspi formation was probed through a series of tests such as thin section analysis, x-ray diffraction, x-ray fluorescence, interfacial tension and contact angle measurements. The results showed that the composition of the carbonate rocks is predominantly calcite (CaCO3) with minor traces of quartz and dolomite. From the interfacial tension (IFT) measurements, it was figured out that the silica and alumina Nanofluids lowered the IFT by 27% and 42% with the light oil, and 43% and 49% with the heavy oil, respectively. The contact angle measurements revealed that the Alumina Nano-fluid at 0.25 wt. % reduced the contact angle on the surface of the light and heavy oil aged thin sections from 169◦ and 115◦ to nearly 119◦ and 78◦. On the other hand, the silica nanoparticle at 0.25 wt. % reduced the contact angles on both thin section types to around 129◦ and 80◦, respectively.
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