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Integrated Modeling as a Tool for Evaluating the Effects of Well Production Rates and Surface Gathering System Performance on Development of Oil Rim

机译:作为评估井生产率和表面采集系统性能对油边缘开发的影响的综合建模

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Efficient development of oil rims requires tools for making production forecasts to consider not only in situ processes, but also limitations of surface infrastructure. This paper describes a case study of creating an integrated structural model of field X containing a block with 30 wells confined to an area of about 20 million m2 . Oil accumulations in this field are represented by marginal and underlying oil rims. The basic concept of oil rim development in the field is re-injection of the produced associated gas back into the reservoir. Volumes of gas injected to maintain reservoir pressure affect oil production levels. Conversely, efficient oil well operation depends on associated gas production, including the gas breaking through from gas caps. With this development strategy, it is critical to consider the limitations of artificial lift systems, production gathering, and treatment systems to maximize economic performance of the project and to generate reliable oil, gas, and water production forecasts. Integrated modeling is aimed at a detailed approach of predicting production levels by combining the reservoir, well, and surface gathering systems into a single generalized model. Such model should account for processes taking place in both the reservoir and surface gathering systems, as well as limitations such as gas and fluid velocities in well lifting and gathering network systems, design limitations of gas and oil treatment facilities, and pipeline loops and jumpers, with the final objective of improving the quality of decision-making. The paper describes the basic steps of building an integrated model and the results of comparing production forecasts based on a conventional hydrodynamic model with those based on an integrated model. Calculations proved that well interventions are required for a more efficient field development to optimize production rates from the producing wells.
机译:高效开发油轮辋需要制作生产预测的工具,不仅可以考虑原位流程,还要考虑表面基础设施的限制。本文介绍了一种案例研究,用于创建包含块的磁场X的综合结构模型,其中包含30个井限制在约2000万平方米的面积。该字段中的油累积由边缘和底层油轮辋表示。该领域的油轮辋发育的基本概念正在重新注入所产生的相关气体回到储层中。注入维持水库压力的气体量影响石油生产水平。相反,有效的油井运行取决于相关的气体生产,包括从气体盖断开的气体。通过这种发展战略,考虑人工升降系统,生产集合和治疗系统的局限性至关重要,以最大限度地提高该项目的经济性能,并产生可靠的石油,天然气和水资源预测。集成建模以通过将储层,良好和表面采集系统组合成单个广义模型来预测生产水平的详细方法。这种模型应该考虑在储层和表面采集系统中进行的过程,以及井提升和聚集网络系统中的气体和流体速度,气体和油处理设施的设计限制以及管道环绕和跳线等限制,随着最终目标提高决策质量。本文介绍了构建集成模型的基本步骤以及基于基于集成模型的传统流体动力学模型比较生产预测的结果。计算证明,更有效的现场开发需要井干预,以优化生产井的生产率。

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