使用监督和无监督机器学习的自动地震解释方面

A. J. Bugge, J. Lie
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引用次数: 0

摘要

最先进的地震解释工作流程是基于从地震图像中提取信息,这通常涉及沿目标地质构造手工绘制种子点。这个过程需要专业的地球物理知识、解释经验、直觉和创造力。随着计算能力的提高,数据科学不断发展,并提供适用于包括地球科学在内的各个学科的新数字工具。这些工具大多基于开源的信号处理、图像处理和机器学习算法。通过利用这些数字工具并自动从地震图像中提取信息,我们可以更快更好地积累知识并建立地下理解。在这里,我们介绍了基于监督和无监督机器学习的数据驱动方法,以解决自动地震解释工作流程的关键方面。我们使用预训练的条件生成自适应网络结合形态学操作等图像处理来自动识别和提取故障。此外,我们使用新的地震数据三维纹理描述符来处理地层单元,并计算和聚类描述给定地震子卷的地震地层特征向量。最后,我们将位错和截断的地震层进行了关联,并引入了一种非局部轨迹匹配方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Aspects of automated seismic interpretation using supervised and unsupervised machine learning
Summary The state-of-the-art seismic interpretation workflow is based on extraction of information from seismic images, which typically involves manual mapping of seed points along targeted geological structures. This process requires expert geophysical knowledge, interpretive experience, intuition and creativity. With increasing computational power, data science is continuously evolving and provide new digital tools applicable to various disciplines, including geoscience. Most of these tools are based on open-source signal processing, image processing and machine learning algorithms. By utilizing these digital tools and automate the extraction of information from seismic images, we can accumulate knowledge and build a subsurface understanding faster and better. Here, we introduce data-driven methods based on both supervised and unsupervised machine learning to address key aspects of an automated seismic interpretation workflow. We automatically identify and extract faults using a pre-trained conditional generative adaptive network together with image processing such as morphological operations. Further, we address stratigraphic units with a new 3D texture descriptor for seismic data, and compute and cluster feature vectors that describe seismic stratigraphy for given seismic sub-volumes. Finally, we correlate dislocated and truncated seismic horizons we introduce a non-local trace matching approach.
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