An Integrated Operations Framework for Enhanced Oil Recovery EOR Management

O. Talabi, Ali Didanloo, M. F. Harun, I. Traboulay
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Abstract

The Oil Industry has been implementing Integrated Operations (IO), with several fields documenting value achieved from past and present IO initiatives. Largely, these documented IO initiatives have focused on well and equipment performance and general planning. However, Enhanced Oil Recovery (EOR) methods including thermal, chemical and gas injection which are increasingly being pursued in many fields globally require additional meticulous reservoir surveillance to understand and quantify the effectiveness of the EOR scheme which adds to the value of such projects. Interpretation and integration of all available data and processes into clear, structured and reproducible EOR well and reservoir management workflows to support decision making is still challenging due to the variety of disciplines, data acquisition, processing, analysis, and modeling techniques and technologies involved, and the level of collaboration required. Using an EOR-IO framework as a companion to the Reservoir Management Plan (RMP) can help address these challenges and increase the likelihood of project success. This paper describes such an EOR-IO framework which can be adapted for a wide variety of EOR processes as well as any general injection scheme (including water or gas) and presents a case study where this framework was implemented. The framework is a system for generating a clear framing and mapping of the EOR equipment, data, required analyses and decision processes using an assessment involving all EOR stakeholders and based on the Reservoir Management Plan (RMP). The framework enables all stakeholders to unambiguously understand and agree on how EOR performance will be quantified, what surveillance methods are required and what decisions will need to be taken. The framework facilitates a way for EOR management decision processes to be mapped onto technology-and-people enabled workflows that will help organize data, streamline analysis, define roles and enable efficient management of the EOR implementation in 5 clearly defined layers: Physical, Technology/Infrastructure, Process/Computational, Visualization and Organizational. Depending on the asset and project, the number of workflows may vary but they should fall into one of 3 groups: Operational Group: a system to support implementation of strategy at the operational level using real-time and in-time data.Tactical Group: a system that supports quantification of the overall effectiveness of the EOR scheme in the subsurface in terms of sweep, displacement, pressure, chemical loss, etc. using in-time analysis results.Strategic Group: a system to support identification of situations when an adjustment in EOR strategy is required and enable optimization of the strategy adjustment. This framework was successfully applied to a Field in Malaysia where a total of 6 EOR workflows were designed for managing the EOR scheme. The framework was flexible enough to enable design, development and implementation of the workflows to help ensure that the EOR is managed as an integrated, holistic system.
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提高采收率EOR管理的综合作业框架
石油行业一直在实施集成作业(IO),几个油田记录了过去和现在的IO计划所取得的价值。在很大程度上,这些记录在案的IO计划主要集中在油井和设备性能以及总体规划上。然而,全球许多油田越来越多地采用包括热、化学和注气在内的提高采收率(EOR)方法,这需要额外细致的油藏监测,以了解和量化EOR方案的有效性,从而增加此类项目的价值。由于涉及各种学科、数据采集、处理、分析和建模技术,以及所需的协作水平,将所有可用数据和流程解释和整合到清晰、结构化和可重复的EOR井和油藏管理工作流程中,以支持决策制定仍然具有挑战性。将EOR-IO框架与油藏管理计划(RMP)相结合,可以帮助解决这些挑战,提高项目成功的可能性。本文描述了这样一个EOR- io框架,它可以适用于各种EOR过程以及任何一般的注入方案(包括水或气),并介绍了一个实施该框架的案例研究。该框架是一个系统,用于生成EOR设备、数据、所需分析和决策过程的清晰框架和映射,该系统使用涉及所有EOR利益相关者的评估,并基于油藏管理计划(RMP)。该框架使所有利益相关者能够明确理解并就如何量化EOR绩效、需要采用何种监督方法以及需要采取何种决策达成一致。该框架有助于将EOR管理决策过程映射到技术和人员支持的工作流程中,这将有助于组织数据、简化分析、定义角色,并在5个明确定义的层(物理层、技术/基础设施层、过程/计算层、可视化层和组织层)实现EOR实施的有效管理。根据资产和项目的不同,工作流的数量可能会有所不同,但它们应该属于以下三组之一:运营组:使用实时和实时数据在运营层面支持战略实施的系统。战术组:通过实时分析结果,支持对地下EOR方案在波及、排量、压力、化学损失等方面的整体有效性进行量化的系统。战略组:当需要调整EOR战略时,支持识别情况并使战略调整最优化的系统。该框架已成功应用于马来西亚的一个油田,该油田共设计了6个EOR工作流程来管理EOR方案。该框架具有足够的灵活性,可以实现工作流程的设计、开发和实施,从而确保将EOR作为一个集成的整体系统进行管理。
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