Review of carbonated water injection as a promising technology to enhance oil recovery in the petroleum industry: Challenges and prospects

IF 6.1 1区 工程技术 Q2 ENERGY & FUELS Petroleum Science Pub Date : 2024-12-01 Epub Date: 2024-07-06 DOI:10.1016/j.petsci.2024.07.009
Ke Chen , Jing-Ru Zhang , Si-Yu Xu , Mu-Zi Yin , Yi Zhang , Yue-Chao Zhao , Yong-Chen Song
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Abstract

Carbonated water injection (CWI) is a promising enhanced oil recovery (EOR) technology that has received much attention in co-optimizing CO2 storage and oil recovery. This study provides a comprehensive review of the fluid system properties and the underlying changes in rock–fluid interactions that drive the CWI-EOR mechanisms. Previous research has indicated that CWI can enhance oil recovery by shifting reservoir wettability towards a more water-wet state and reducing interfacial tension (IFT). However, this study reveals that there is still room for discussion in this area. Notably, the potential of CWI to alter reservoir permeability has not yet been explored. The varying operational conditions of the CWI process, namely temperature, pressure, injection rate, salinity, and ionic composition, lead to different levels of oil recovery factors. Herein, we aim to meticulously analyze their impact on oil recovery performance and outline the optimal operational conditions. Pressure, for instance, positively influences oil recovery rate and CWI efficiency. On one hand, higher operating pressures enhance the effectiveness of CW due to increased CO2 solubility. On the other hand, gas exsolution events in depleted reservoirs provide additional energy for oil movement along gas growth pathways. However, CWI at high carbonation levels does not offer significant benefits over lower carbonation levels. Additionally, lower temperatures and injection rates correlate with higher recovery rates. Further optimization of solution chemistry is necessary to determine the maximum recovery rates under optimal conditions. Moreover, this review comprehensively covers laboratory experiments, numerical simulations, and field applications involving the CWI process. However, challenges such as pipeline corrosion, potential reservoir damage, and produced water treatment impact the further application of CWI in EOR technologies. These issues can affect the expected oil recovery rates, thereby reducing the economic returns of EOR projects. Finally, this review introduces current research trends and future development prospects based on recently published studies in the field of CWI. The conclusions of this study aid readers in better understanding the latest advancements in CWI technology and the strengths and limitations of the techniques used, providing directions for further development and application of CWI.
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回顾碳酸水注入作为一种在石油工业中提高石油采收率的有前途的技术:挑战与前景
碳酸注水(CWI)是一种很有前途的提高采收率(EOR)技术,在协同优化二氧化碳储存和采油方面受到了广泛关注。该研究全面回顾了流体系统的性质以及驱动CWI-EOR机制的岩石-流体相互作用的潜在变化。之前的研究表明,CWI可以通过将储层润湿性转向更亲水的状态并降低界面张力(IFT)来提高采收率。然而,这项研究表明,在这一领域仍有讨论的空间。值得注意的是,CWI改变储层渗透率的潜力尚未被探索。CWI过程的不同操作条件,即温度、压力、注入速率、盐度和离子组成,导致不同程度的采收率。在此,我们的目标是仔细分析它们对采收率的影响,并概述最佳操作条件。例如,压力对原油采收率和CWI效率有积极影响。一方面,由于CO2溶解度的提高,较高的操作压力提高了连续油管的有效性。另一方面,枯竭储层中的气体溶解事件为沿天然气生长路径的石油运动提供了额外的能量。然而,与低碳化水平相比,高碳化水平下的CWI并没有显著的优势。此外,较低的温度和注入速度与较高的采收率相关。为了确定最佳条件下的最大回收率,需要进一步优化溶液化学。此外,本文还全面介绍了实验室实验、数值模拟和涉及CWI过程的现场应用。然而,管道腐蚀、潜在储层损害和采出水处理等挑战影响了CWI在提高采收率技术中的进一步应用。这些问题会影响预期的原油采收率,从而降低EOR项目的经济效益。最后,结合近年来在CWI领域发表的研究成果,介绍了当前的研究趋势和未来的发展前景。本研究的结论有助于读者更好地了解CWI技术的最新进展以及所使用技术的优势和局限性,为CWI的进一步发展和应用提供方向。
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来源期刊
Petroleum Science
Petroleum Science 地学-地球化学与地球物理
CiteScore
7.70
自引率
16.10%
发文量
311
审稿时长
63 days
期刊介绍: Petroleum Science is the only English journal in China on petroleum science and technology that is intended for professionals engaged in petroleum science research and technical applications all over the world, as well as the managerial personnel of oil companies. It covers petroleum geology, petroleum geophysics, petroleum engineering, petrochemistry & chemical engineering, petroleum mechanics, and economic management. It aims to introduce the latest results in oil industry research in China, promote cooperation in petroleum science research between China and the rest of the world, and build a bridge for scientific communication between China and the world.
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