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Proposed for presentation at the AGU Fall Meeting 2020 held December 1-17, 2020.最新文献

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Performance-Portability Results for the Non-Hydrostatic Atmosphere Dycore of E3SM at Cloud-Resolving Resolutions. 云分辨分辨率下E3SM非流体静力大气Dycore的性能可移植性结果。
Pub Date : 2020-11-01 DOI: 10.1002/essoar.10504848.1
Luca Bertagna, O. Guba, M. Taylor, J. Foucar, A. Bradley, A. Salinger
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引用次数: 0
Machine Learning Application for Permeability Estimation of Three-Dimensional Rock Images 机器学习在三维岩石图像渗透率估算中的应用
H. Yoon, D. Melander, Stephen J Verzi
Estimation of permeability in porous media is fundamental to understanding coupled multi-physics processes critical to various geoscience and environmental applications. Recent emerging machine learning methods with physics-based constraints and/or physical properties can provide a new means to improve computational efficiency while improving machine learning-based prediction by accounting for physical information during training. Here we first used three-dimensional (3D) real rock images to estimate permeability of fractured and porous media using 3D convolutional neural networks (CNNs) coupled with physics-informed pore topology characteristics (e.g., porosity, surface area, connectivity) during the training stage. Training data of permeability were generated using lattice Boltzmann simulations of segmented real rock 3D images. Our preliminary results show that neural network architecture and usage of physical properties strongly impact the accuracy of permeability predictions. In the future we can adjust our methodology to other rock types by choosing the appropriate architecture and proper physical properties, and optimizing the hyperparameters.
多孔介质渗透率的估算是理解耦合多物理过程的基础,对各种地球科学和环境应用至关重要。最近出现的基于物理约束和/或物理性质的机器学习方法可以提供一种新的方法来提高计算效率,同时通过在训练过程中考虑物理信息来改进基于机器学习的预测。在这里,我们首先使用三维(3D)真实岩石图像,在训练阶段使用3D卷积神经网络(cnn)结合物理信息的孔隙拓扑特征(例如孔隙度、表面积、连通性)来估计裂缝和多孔介质的渗透率。采用栅格玻尔兹曼模拟方法,对分段的真实岩石三维图像进行渗透率训练。我们的初步结果表明,神经网络结构和物理性质的使用强烈影响渗透率预测的准确性。在未来,我们可以通过选择适当的结构和适当的物理性质来调整我们的方法,以适应其他岩石类型,并优化超参数。
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引用次数: 0
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Proposed for presentation at the AGU Fall Meeting 2020 held December 1-17, 2020.
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