基于综合模拟-地面网络建模的GOM深水分层Wilcox油藏被动与主动智能注水井提高采收率评价

W. D. Sie, Andrew Oghena, Gaurav Seth, L. Ouyang, Mojtaba Ghoraishy
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引用次数: 1

摘要

改进现场管理,监测、估计区域产能/注入能力,并通过智能完井控制井,可以扩大先进井设计的应用范围。我们开发了一种耦合模拟-地面网络建模工作流程,以评估智能注入剖面控制的潜在效益,重点关注墨西哥湾(GOM)深水提高采收率(EOR)方案的被动控制与主动控制。开发的注入控制解决方案可以连续应用于注气、注水和气后注水,以评估智能注入器对每种方案的相对影响。为此,我们为墨西哥湾深水威尔考克斯多层油藏制定了主动和被动注入ICV控制规则。基于储层特征、注入孔隙体积和可采孔隙体积的主动控制依赖于静态储层模型的实现。当我们开始观察到流体突破时,主动控制结果显示收益递减,部分原因是原始静态评估的不可避免的不确定性,因此基于油藏模型更新重新评估最佳孔隙体积注入应该是有益的。在将注入控制事件与生产响应联系起来方面,基于实测生产响应的反应性控制策略是一个挑战,这些控制事件具有时间滞后且不完整,无法理解气、水的突破。综合模型捕捉了上层设施、立管、流线、歧管和上层压力/温度、海底增压泵性能、井口、井筒与油藏的相互作用以及ICV控制的影响,从而对可实现的开发方案结果进行了现实的评估。
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Reactive vs Proactive Intelligent Well Injection Evaluation for EOR in a Stratified GOM Deepwater Wilcox Reservoir using Integrated Simulation-Surface Network Modeling
Improved field management for monitoring, estimating zone productivity/injectivity, and controlling wells with intelligent completions can broaden application of advanced well designs. We have developed a coupled Simulation-Surface Network modeling workflow to evaluate the potential benefit of intelligent injection profile control with a focus on reactive vs proactive control for Gulf of Mexico (GOM) Deepwater Enhanced Oil Recovery (EOR) schemes. The developed injection control solution can be consistently applied to gas, water injection, and gas followed by water injection, to evaluate relative impacts of intelligent injectors on each option. We did this by defining rules for both proactive and reactive injection ICV controls for a GOM Deepwater Wilcox multilayered reservoir. Proactive controls, based on reservoir zone characteristics, pore volume injected, and recoverable pore volume, are dependent on a static reservoir model realization. Proactive control results demonstrate a diminishing return as we begin to observe fluid breakthroughs that results in part from the inevitable uncertainty of the original static assessment so there should be a benefit in reassessing optimal pore volume injection based on reservoir model updates. Reactive control strategies based on measured production response is a challenge in terms of linking injection control events to production responses that are time-lagged and incomplete for understanding gas and water breakthrough. The integrated model captures the effects of topside facilities, risers, flowlines, pressure/temperature at manifolds and topside, seafloor booster pump performance, wellheads, and wellbore to reservoir interactions and ICV controls to provide a realistic evaluation of achievable development alternatives outcomes.
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