地震解释技术的进步及其对交互和迭代解释工作流程的影响

M. H. Badar, Syed Sadaqat S. Ali, Yasser Ghamdi, Muhammad Khan
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引用次数: 0

摘要

地震解释是油气勘探和油田开发的关键任务和基础。地震数据提供了从盆地到油藏规模的工作流程,用于识别区域构造、圈定前景和计算岩石性质。本文通过关键的技术里程碑讨论了地震构造的演变和地层解释。这涵盖了广泛的范围,从传统的二维解释方法到帮助我们看到四分之一波长以下分辨率的过程。我们已经捕获了重新定义地震解释景观的工作流程。其中包括基于小波的解释、多属性分析、光谱分解、地质体提取、认知解释、叠前解释以及机器学习在地震解释中的应用。我们还介绍了计算环境的进步,这些进步为解释工作流程提供了范式转变。我们演示了如何将传统工作流迁移到具有多域数据访问和分析的用户桌面上的交互式和迭代过程。我们还讨论了硬件支持,例如由图形处理单元(gpu)驱动的高端桌面中央处理单元(cpu),这在几年前是不可能实现的。随着技术的进步,地球科学家的期望也越来越高。曾经被认为是专业领域的工作流程,现在被职业生涯早期到中期的专业人士所实践。这是由集群、云和软件技术驱动的硬件基础设施的巨大进步所实现的。认知解释、大数据分析、人工智能、机器和深度学习工作流程正在成为地震解释的嵌入式组件。我们观察到在地震解释转变的6个关键领域取得了进展。以更快的速度处理大型数据集和处理的计算技术,导致认知解释的可视化技术,整合多学科和多尺度数据的能力,利用叠前数据的解释处理,导致相对地质时间模型(RGT)的全球解释方法,允许有效利用地震立方体的每个样本,以及整合机器和深度学习过程的能力,增强地震解释。我们介绍了使用这些技术来最大限度地从地震解释中获益的例子。还讨论了地球科学数据存储作为通用开源数据格式的未来,以及通过部署企业人工智能平台大规模应用人工智能。采用由技术驱动的现代工作流程的优点有助于开发共享的综合地球建模环境。这使得多学科团队可以使用叠前和叠后地震数据、岩石性质、储层模型和实时钻井更新来做出明智的决策。在机器和深度学习的辅助下,这也有助于在勘探和油田开发中钻出大位移水平井,最大限度地扩大油藏接触面积。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Seismic Interpretation Technologies Advancement and its Impact on Interactive and Iterative Interpretation Workflows
Seismic interpretation is a key task and foundation for hydrocarbons exploration and field development. Seismic data provides coverage from basin to reservoir scale workflows for identifying regional structures, delineate prospects and calculate rock properties. In this paper we discuss the evolution of seismic structural and stratigraphic interpretation through key technological milestones. This covers a broad spectrum, from conventional 2D interpretation methodologies to processes that help us see below the quarter wavelength resolution. We have captured the workflows that are redefining seismic interpretation landscape. These include wavelet based interpretation, multi-attribute analysis, spectral decomposition, geobody extraction, cognitive interpretation, pre-stack interpretation and applications of machine learning to seismic interpretation. We also present advancements in the computing environment that provided a paradigm shift in interpretation workflows. We demonstrate how the conventional workflows migrate into interactive and iterative processes at user desktops with multi-domain data access and analysis. We also discuss the hardware enablers such as high end desktop central processing units (CPUs) powered with graphic processing units (GPUs) that were not possible a few years ago. The advancement in technology comes with increased expectation from geoscientists. The workflow that were once considered in specialist domain are now being practiced by early to mid-career professionals. This is made possible with huge strides both in hardware infrastructure powered by clusters and cloud and software technologies. The cognitive interpretation, big data analysis, artificial intelligence, machine and deep learning workflows are becoming embedded components of seismic interpretation. We observe the advancement in 6 key areas that are responsible in transforming the seismic interpretation. The computing technology to handle large datasets and process at much faster pace, visualization technology leading to cognitive interpretation, ability to integrate multidisciplinary and multiscale data, interpretive processing utilizing pre-stack data, global interpretation methods leading to relative geologic time model (RGT) allowing the efficient use of every sample of seismic cube and ability to integrate the machine and deep learning processes that augment seismic interpretation. We present examples of using these technologies to maximize the benefit from seismic interpretation. The future of geoscience data storage as common opensource data format and applying the AI at scale offered through deploying enterprise AI platform is also discussed. The advantages of adopting the modern workflows driven by technology are helping in developing a shared integrated earth modelling environment. This allows the multi-disciplinary teams to use pre and post stack seismic data, rock properties, reservoir models and real-time drilling updates to make informed decisions. This is also helping both in exploration and field development to drill long reach horizontal wells maximizing the reservoir contacts assisted by machine and deep learning.
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