基于卷积神经网络的地震数据自动断层解释

D. Egorov
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引用次数: 2

摘要

目前,了解特定油气储层断层的几何分布已成为一项非常重要的任务。这是因为目前非常规储层的流体流动主要是由天然裂缝驱动,而不是由沉积孔隙度和相应的渗透率驱动。另一方面,由于构造作用,复杂的储集层被分隔成小的不连续层,在油田开发过程中可能会带来经济风险。大多数传统的地震资料断层解释工具受数据噪声和确定性的影响很大,不能产生概率输出。本文研究了卷积神经网络在地震资料断层解释中的应用。描述了建议的体系结构和培训过程。通过度量和可视化分析表明,该方法能够从不同地质和地球物理条件下的地震资料中圈定断层。所建议的方法的另一个优点是它能够产生概率输出,允许在考虑许多可能情况的地质不确定性和与之相关的经济风险的情况下进行稳健的工作。
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Automatic fault interpretation from seismic data via convolutional neural networks
Summary These days understanding of fault geometry distribution across a particular oil or gas reservoir becomes very important task. It arises from the fact that fluid flow of present unconventional deposits is mostly driven by natural fractures instead of sedimentary porosity and corresponding permeability. On the other, complex compartmentalized reservoir separated into small discontinuous deposits by tectonic activity could lead to economic risks during field development. Most of conventional tools for fault interpretation from seismic data are highly affected by noise from data and deterministic so cannot produce probabilistic output. In the presented research application of convolutional neural networks for fault interpretation from seismic data was considered. Proposed architecture and training process were described. It was shown by metrics and visual analysis that developed method is able to delineate faults from seismic data in different geological and geophysical conditions. Additional advantage of suggested approach is its ability to produce probabilistic output allowing robust work with geological uncertainties and economic risks related to them due to consideration of many probable cases.
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