Laboratory Investigation of Hybrid Nanoparticles Injection for Enhanced Oil Recovery Process

M. Hashmet, Peyman Peyman, Yernur Satay
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Abstract

- Nanoparticles due to their unique characteristics are gaining attraction for enhanced oil recovery (EOR) applications. Nanoparticles during the EOR process may activate many mechanisms, particularly wettability alteration, and thus improve the recovery factor. Silica nanoparticle has been largely testified for EOR. The effect of alumina nanoparticles for EOR is also being investigated recently. Their combination may enhance their performance in wettability alteration. In this research, we studied the wettability alteration and recovery performance of the hybrid nanoparticles. A series of experiments were conducted starting from zeta potential and contact angle measurement to determine optimum concentrations of silica, alumina, and hybrid nanoparticles. After dispersing nanoparticles (alone and hybrid), solutions were homogenized using ultrasonic homogenizer. The zeta potential results showed that the silica nanofluid could stay stable for at least 3 days without the need for a stabilizer. However, a stabilizer (SDBS) is required to prepare stable alumina and hybrid nanofluid. Baseline experiments were conducted with the stabilizer to quantify the performance of the stabilizer. Later, contact angles were measured (at room temperature and 80 °C) to analyze the effect of the nanofluid on rock/oil/brine systems and to determine the optimal nanofluid concentration. The results of contact angle experiments prove that, for both temperatures (room and 80 °C), maximum alteration in wettability was shown by the hybrid nanoparticle mixture (0.1wt%silica+0.05wt%Alumina), 29° and 33°, respectively. Finally, coreflooding tests were conducted to study the performance of the optimal nanofluid in enhancing oil recovery. The coreflood experiment was conducted with optimum hybrid nanofluid at 80 °C. The recovery factor recorded with Caspian Seawater was 42%, and silica nanofluid improved the recovery to 46%. The injection was followed by a hybrid nanofluid, which increased the recovery factor to 73%. The results presented in this study prove that hybrid nanoparticle injection improves the performance as compared to standalone nanoparticles.
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混合纳米颗粒注入提高采收率的实验室研究
纳米颗粒由于其独特的特性,在提高石油采收率(EOR)应用中越来越受欢迎。纳米颗粒在提高采收率过程中可以激活多种机制,特别是润湿性改变,从而提高采收率。纳米二氧化硅在提高采收率方面得到了广泛的应用。氧化铝纳米颗粒在提高采收率方面的作用最近也在研究中。它们的组合可以提高润湿性变化的性能。在本研究中,我们研究了杂化纳米颗粒的润湿性变化和采收率。从zeta电位和接触角测量开始,进行了一系列实验,以确定二氧化硅、氧化铝和混合纳米颗粒的最佳浓度。分散纳米颗粒(单独和混合)后,使用超声波均质机对溶液进行均质。zeta电位结果表明,在不需要稳定剂的情况下,二氧化硅纳米流体可以保持至少3天的稳定。然而,制备稳定的氧化铝和杂化纳米流体需要稳定剂(SDBS)。为了量化稳定器的性能,对稳定器进行了基线实验。随后,测量了接触角(室温和80℃),以分析纳米流体对岩石/油/盐水体系的影响,并确定最佳纳米流体浓度。接触角实验结果表明,在室温和80℃两种温度下,混合纳米颗粒混合物(0.1wt%二氧化硅+0.05wt%氧化铝)的润湿性变化最大,分别为29°和33°。最后,进行了岩心驱油试验,研究了最佳纳米流体提高采收率的性能。在80℃条件下,采用最佳混合纳米流体进行岩心驱替实验。里海海水的采收率为42%,二氧化硅纳米流体将采收率提高到46%。随后注入混合纳米流体,将采收率提高到73%。本研究的结果证明,与单独的纳米颗粒相比,混合纳米颗粒注入提高了性能。
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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