座舱增压
石油工程
注水(采油)
纳米-
材料科学
复合数
润湿
复合材料
工程类
作者
Qingling Feng,Xianchao Chen,Ning Zhang,Xiaonan Li,Jingchao Zhou,Shengsheng Li,Xiaorong Zhang,Yanni Sun,Yuehui She
出处
期刊:ACS omega
[American Chemical Society]
日期:2023-04-18
卷期号:8 (17): 15553-15563
被引量:4
标识
DOI:10.1021/acsomega.3c00882
摘要
Given the high injection pressure and insufficient injection volume in the offshore oilfield, Bohai Oilfield has developed a bio-nano-depressurization and injection-increasing composite system solution (bio-nano-injection-increasing solution) composed of bio-surfactants, hydrophobic nano-polysilicon particles, and dispersant additives. In response to the current problems, a new type of bio-nano-depressurization and injection enhancement technology has been studied, which has multiple functions such as nano-scale inhibition and wetting reversal. The new technology has the technical advantages of efficient decompression, long-term injection, and wide adaptation. However, there is still a lack of optimization schemes and application effect prediction methods, which hinder the further popularization and application of the bio-nano-composite system solution. To solve this problem, this paper takes Well A1 in the Bohai Sea as an example to optimize the injection volume, concentration, and speed of the bio-nano-augmentation fluid and evaluates the application effect by using the proposed well testing, water absorption index, and numerical simulation methods. The research results show that the bio-nano-injection fluid can effectively improve the reservoir permeability and reduce the injection pressure. The application effect evaluation method proposed is reliable and can provide some reference for similar depressurization and injection-increasing technologies.
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