二氧化碳高压混淹封存技术及其在中国胜利油田的应用

IF 7 Q1 ENERGY & FUELS Petroleum Exploration and Development Pub Date : 2024-10-01 DOI:10.1016/S1876-3804(25)60538-6
Yong YANG , Shiming ZHANG , Xiaopeng CAO , Qi LYU , Guangzhong LYU , Chuanbao ZHANG , Zongyang LI , Dong ZHANG , Wenkuan ZHENG
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引用次数: 0

摘要

针对胜利油田轻烃含量低、混压高,储层异质性强、扫采效率低,气体通道性强、全过程控制难度大等特点,CO2水淹封存存在多种问题。通过实验室实验、技术研究和现场实践,建立了二氧化碳高压混淹封存理论和技术。通过将地层压力提高到最低混溶压力的 1.2 倍,改善了中重组分的混溶性,提高了小孔隙产油率,均匀发展了置换锋,扩大了扫油体积。通过先进的压力淹没和能量补充实现快速高压混溶,采用梯级水-替代气(WAG)、注采耦合、多级化堵等技术动态控制流动阻力,获得最佳采油率和二氧化碳封存系数。研究成果应用于碳捕集、利用与封存(CCUS)示范区 Gao89-Fan142,区块日产油量由 254.6 t 提高到 358.2 t,预计 15 年采收率提高 11.6 个百分点,为大规模开发 CCUS 提供了理论和技术支撑。
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CO2 high-pressure miscible flooding and storage technology and its application in Shengli Oilfield, China
There are various issues for CO2 flooding and storage in Shengli Oilfield, which are characterized by low light hydrocarbon content of oil and high miscible pressure, strong reservoir heterogeneity and low sweep efficiency, gas channeling and difficult whole-process control. Through laboratory experiments, technical research and field practice, the theory and technology of CO2 high pressure miscible flooding and storage are established. By increasing the formation pressure to 1.2 times the minimum miscible pressure, the miscibility of the medium-heavy components can be improved, the production percentage of oil in small pores can be increased, the displacing front developed evenly, and the swept volume expanded. Rapid high-pressure miscibility is realized through advanced pressure flooding and energy replenishment, and technologies of cascade water-alternating-gas (WAG), injection and production coupling and multistage chemical plugging are used for dynamic control of flow resistance, so as to obtain the optimum of oil recovery and CO2 storage factor. The research results have been applied to the Gao89-Fan142 in carbon capture, utilization and storage (CCUS) demonstration site, where the daily oil production of the block has increased from 254.6 t to 358.2 t, and the recovery degree is expected to increase by 11.6 percentage points in 15 years, providing theoretical and technical support for the large-scale development of CCUS.
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来源期刊
CiteScore
11.50
自引率
0.00%
发文量
473
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