Applications of automated Petrel workflows in 3D reservoir geologic modelling – A case study

I. Nemes
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Abstract

Mature fields have been playing a significant role in the oil and gas realm recently, and redevelopment and optimization efforts are being made globally to prolong the lifetime of these resources. The aim of this study is to showcase the benefits of hydrocarbon reservoir modelling, with a special focus on various aspects of Petrel workflows. This article is a direct continuation of Nemes et al. (2021), which described the Phase 1 geomodel of the same field described in this study. The Phase 2 geomodel – the scope of the current article – is based on a significantly more complete, more detailed, and fundamentally rebuilt dataset compared to Phase 1. The seismic and petrophysical interpretations were updated, and additional data sources were incorporated into the analysis. The geomodel was created in Schlumberger's Petrel software, and during the building of it, a comprehensive 800-plus-step, full-cycle, automated workflow was outlined. The created workflow makes the model update faster by a minimum of five times, makes it more transparent and decreases the risk of human error. The created workflow describes the entire geomodelling process from data loading, via surface adjustments, structural modelling, and property modelling, to a closing of the loop with volumetric calculation. The whole workflow can be rerun easily, and beside the updates made to the geomodel, a full range of quality-check supporting calculations and visualizations were created in order to provide the user with full control. The geomodel showcased here is a key building block of the ongoing and planned development and redevelopment activities in the field, serves as a tool for well and workover planning, water injection system adjustments and a direct input to dynamic simulation, and also provides direct inputs to the documentation of an updated field development plan.
自动海燕工作流程在三维油藏地质建模中的应用-一个案例研究
最近,成熟油田在石油和天然气领域发挥了重要作用,全球正在进行再开发和优化工作,以延长这些资源的使用寿命。本研究的目的是展示油气藏建模的好处,特别关注Petrel工作流的各个方面。本文是Nemes等人。(2021),其中描述了本研究中描述的同一领域的第一阶段地质模型。与第一阶段相比,第二阶段的地理模型(本文的范围)基于一个明显更完整、更详细、从根本上重建的数据集。更新了地震和岩石物理解释,并将额外的数据源纳入分析。地质模型是在斯伦贝谢的Petrel软件中创建的,在构建过程中,概述了一个800多步、全周期、自动化的综合工作流程。创建的工作流使模型更新速度至少快五倍,使其更加透明,并降低人为错误的风险。创建的工作流程描述了整个地质建模过程,从数据加载到表面调整、结构建模和特性建模,再到体积计算的闭环。整个工作流程可以很容易地重新运行,除了对地理模型进行更新外,还创建了一系列支持计算和可视化的质量检查,以便为用户提供完全的控制。这里展示的地质模型是油田正在进行和计划中的开发和再开发活动的关键组成部分,是油井和修井规划、注水系统调整和动态模拟的直接输入工具,也为更新油田开发计划的文件提供了直接输入。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Central European Geology
Central European Geology Earth and Planetary Sciences-Geology
CiteScore
1.40
自引率
0.00%
发文量
8
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