超前完井解决大位移水平井评价中的生产测井难题

Akram Younis, Mohammed Alshehhi, Haitham Al Braik, H. Uematsu, Mohamed El-Sayed, Muhammad Abrar Manzar, M. Ismail, Manjiri A. More
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引用次数: 0

摘要

生产测井分析对于了解和评价油井在整个生命周期内的储层动态至关重要。众所周知,在现代大位移水平井中,由于传输困难、流体离析、碎屑或裸眼冲蚀等多种因素,数据采集和分析具有挑战性。为了最大限度地减少与这些挑战相关的不确定性,提出了先进的紧凑型多阵列生产测井工具(APLT)。所提出的传感器部署方法提供了一个全面的井眼覆盖范围,从而最大限度地收集地下信息,以评估水平井的生产动态。基本的测量值组合在六个单独的臂上。每个臂都是独立部署的,保证了在各种井眼条件下的最佳井眼覆盖。坚固的机械臂设计最大限度地减少了损坏,允许分散的容忍度,并在确定传感器位置时提供了更大的信心。每个臂采用两个流体保持传感器(电阻,光学)和一个速度传感器(微旋转)。与上一代APLT相比,传感器的协同定位最大限度地减少了与传感器间距相关的不确定性。讨论了新的传感器部署方法和分析结果,显示了赤脚完井和高级ICD完井的附加价值。将上一代APLT的保持传感器响应与先进的工具进行比较,并分析其与更好的井眼覆盖的关系。结果还说明了使用高频光学探头来测定相持率。此外,通过自信地检测管中的第一个气体指示,光学探头用于在原位条件下确认气泡点压力。结果清楚地表明,紧凑型APLT如何在大斜度井和水平井中最大化井眼覆盖范围。这对于收集所有分离流体的代表性数据至关重要,可以更准确地解释井中的流动剖面,更好地了解储层的动态。新仪器的新颖之处在于能够以低不确定性和最小的操作风险最大限度地收集地下生产测井信息。
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Overcoming Production Logging Challenges in Evaluating Extended Reach Horizontal Wells with Advanced Completions
Production logging analysis is essential to understand and evaluate reservoir performance throughout the lifetime of an oil well. Data acquisition and analysis is known to be challenging in modern extended reach horizontal wells due to multiple factors such as conveyance difficulties, fluid segregation, debris, or open hole washouts. Advanced compact multiple array production logging tool (APLT) is proposed to minimize the uncertainties related to these challenges. The proposed sensor deployment method provides a comprehensive borehole coverage, thus maximizing the amount of subsurface information collected to evaluate the production performance of a horizontal well. Essential measurements are combined on six individual arms. Each arm is independently deployed which guarantees the best borehole coverage in a variety of borehole condition. Robust mechanical arm design minimizes damage, allows tolerance to decentralization, and provides greater confidence in determining the sensor locations. Each arm utilizes two fluid holdup sensors (Resistance, Optical) and one velocity sensor (Micro-Spinner). Co-location of the sensors minimizes the uncertainty related to sensor spacing when compared with previous generation of APLT. The new sensor deployment method and analysis results are discussed showing the added value in barefoot completion as well as advanced ICD completion. The holdup sensors response from previous generation APLT is compared to the advanced tool and how it relates to better borehole coverage. The results also illustrate use of high frequency optical probes for phase holdup determination. In addition, the optical probes are used to confirm bubble point pressure at in situ conditions by confidently detecting the first gas indication in the tubular. The results clearly show how a compact APLT maximizes the borehole coverage in highly deviated and horizontal wells. This is critical in collecting representative data of all segregated fluids which enables more accurate interpretation of the flow profile in the well and better understanding of reservoir performance. The novelty of the new instrument is the ability to maximize the amount of subsurface production logging information collected with low uncertainty and minimum operational risk.
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