Numerical Investigation of Enhanced Oil Recovery from various Rocks by Nanosuspensions Flooding

Q4 Chemical Engineering Applied and Computational Mechanics Pub Date : 2022-01-01 DOI:10.22055/JACM.2021.38217.3182
D. Guzei, A. Minakov, M. Pryazhnikov, S. Ivanova
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引用次数: 1

Abstract

This work is devoted to the systematic numerical simulation of oil displacement using nanosuspension with silicon oxide particles with concentration of up to 1 wt% and particle sizes of 5 nm. The influence of such factors as core wettability, concentration of nanoparticles, capillary number, and oil viscosity on the enhanced oil recovery by nanosuspension has been systematically investigated using the VOF method for 2D-dimensional micromodels. Various rocks were considered: dolomite, metabasalt and sandstone. It is shown that the oil recovery coefficient improves for all considered types of rock with increasing nanoparticle concentration. The most effective application of nanosuspension for enhanced oil recovery is observed at a low capillary number, corresponding to the capillary displacement mode. The addition of nanoparticles facilitates increasing oil recovery factor in a wide range of viscosity ratios between oil and displacement fluid.
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纳米悬浮驱提高不同岩石采收率的数值研究
这项工作致力于使用浓度高达1wt %、粒径为5nm的氧化硅纳米悬浮液对驱油进行系统的数值模拟。采用二维微模型VOF方法系统研究了岩心润湿性、纳米颗粒浓度、毛细数、油粘度等因素对纳米悬浮液提高采收率的影响。考虑了各种岩石:白云岩、变质玄武岩和砂岩。结果表明,随着纳米颗粒浓度的增加,所有考虑的岩石类型的采收率系数都有所提高。在毛细管数较低的情况下,纳米悬浮液提高采收率的效果最好,这与毛细管位移模式相对应。纳米颗粒的加入有助于在油与驱替液粘度比较大的范围内提高采收率。
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来源期刊
Applied and Computational Mechanics
Applied and Computational Mechanics Engineering-Computational Mechanics
CiteScore
0.80
自引率
0.00%
发文量
10
审稿时长
14 weeks
期刊介绍: The ACM journal covers a broad spectrum of topics in all fields of applied and computational mechanics with special emphasis on mathematical modelling and numerical simulations with experimental support, if relevant. Our audience is the international scientific community, academics as well as engineers interested in such disciplines. Original research papers falling into the following areas are considered for possible publication: solid mechanics, mechanics of materials, thermodynamics, biomechanics and mechanobiology, fluid-structure interaction, dynamics of multibody systems, mechatronics, vibrations and waves, reliability and durability of structures, structural damage and fracture mechanics, heterogenous media and multiscale problems, structural mechanics, experimental methods in mechanics. This list is neither exhaustive nor fixed.
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