一种物理驱动的地下反演深度学习网络

Yuchen Jin, Xuqing Wu, Jiefu Chen, Yueqin Huang
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引用次数: 0

摘要

地下反演是地震处理、油田测井和地质导向等许多应用中必不可少的技术。传统的基于优化的反演方法耗时长,且对初值敏感。传统的查找表方法受表大小的限制,虽然可以减少计算时间,但精度较低。为了解决这些问题,我们提出了一个物理驱动的深度神经网络(PhDNN)来解决非线性逆问题。在这个框架中,利用物理正演模型来产生数据不匹配。模型失拟和数据失拟都被用来训练网络。作为一个实例,我们使用该框架解决了一个地质导向问题,该问题可以通过收集的电阻率测井数据来调整钻井方向。数值试验表明,该网络能显著提高预测质量。
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A Physics-Driven Deep Learning Network for Subsurface Inversion
Subsurface inversion is an essential technique for many applications including seismic processing, oilfield well logging an geosteering. Conventional inverse methods based on optimization are time-consuming and sensitive to initial values. The traditional lookup table approach which is limited by the table size could reduce the computational time but only achieves low accuracy. To solve these issues, we propose a physics-driven Deep Neural Network (PhDNN) for solving non-linear inverse problems. In this framework, the physical forward model is utilized to produce a data misfit. Both the model misfit and data misfit are used to train the network. As an example, we use this framework to solve a geosteering problem which enables the drilling direction adjusted by collected resistivity well logging measurements. Numerical tests indicate that the proposed network could improve the quality of the prediction significantly.
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