基于U-Net的地震结构多事件检测

M. Alfarhan, M. Deriche, A. Maalej, G. AlRegib, H. Al-Marzouqi
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引用次数: 4

摘要

地震资料解释是识别盐丘、断层等油气构造圈闭的基本过程。这个过程在专家知识、时间和努力方面要求很高,具有挑战性。当涉及到识别同时发生的多个地震事件时,解释过程变得更具挑战性。近年来,技术趋势是利用先进的计算技术,特别是深度学习(DL)网络,实现地震解释的自动化。在本文中,我们提出了并行盐穹和断层识别的深度学习解决方案,并通过应用于实际地震数据获得了非常有希望的初步结果。所提出的工作流程即使在较小的训练数据集上也能产生出色的检测结果。此外,得到的概率图可以扩展到更多的结构类型。在三种地震构造同时存在的情况下,用实际数据得到了96%以上的精度。
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Multiple Events Detection In Seismic Structures Using A Novel U-Net Variant
Seismic data interpretation is a fundamental process in the pipeline of identifying hydrocarbon structural traps such as salt domes and faults. This process is highly demanding and challenging in terms of expert-knowledge, time, and efforts. The interpretation process becomes even more challenging when it comes to identifying multiple seismic events taking place simultaneously. In recent years, the technology trend has been directed towards the automation of seismic interpretation using advanced computational techniques and in particular deep learning (DL) networks. In this paper, we present our DL solution for concurrent salt domes and faults identification with very promising preliminary results obtained through applications to real world seismic data. The proposed workflow leads to excellent detection results even with small size training datasets. Furthermore, the resulting probability maps can be extended to even a larger number of structure types. Precisions of the order of more than 96% were obtained with real data when three types of seismic structures are present concurrently.
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