$\mathbf{\mathbb{E}^{FWI}}$: Multi-parameter Benchmark Datasets for
Elastic Full Waveform Inversion of Geophysical Properties
- URL: http://arxiv.org/abs/2306.12386v2
- Date: Thu, 7 Sep 2023 19:55:53 GMT
- Title: $\mathbf{\mathbb{E}^{FWI}}$: Multi-parameter Benchmark Datasets for
Elastic Full Waveform Inversion of Geophysical Properties
- Authors: Shihang Feng, Hanchen Wang, Chengyuan Deng, Yinan Feng, Yanhua Liu,
Min Zhu, Peng Jin, Yinpeng Chen, Youzuo Lin
- Abstract summary: $mathbfmathbbEFWI$ is a comprehensive benchmark dataset for elastic full waveform inversion.
$mathbfmathbbEFWI$ encompasses 8 distinct datasets that cover diverse subsurface geologic structures.
The relation between P- and S-wave velocities provides crucial insights into the subsurface properties.
- Score: 27.94139165494327
- License: http://creativecommons.org/licenses/by-sa/4.0/
- Abstract: Elastic geophysical properties (such as P- and S-wave velocities) are of
great importance to various subsurface applications like CO$_2$ sequestration
and energy exploration (e.g., hydrogen and geothermal). Elastic full waveform
inversion (FWI) is widely applied for characterizing reservoir properties. In
this paper, we introduce $\mathbf{\mathbb{E}^{FWI}}$, a comprehensive benchmark
dataset that is specifically designed for elastic FWI.
$\mathbf{\mathbb{E}^{FWI}}$ encompasses 8 distinct datasets that cover diverse
subsurface geologic structures (flat, curve, faults, etc). The benchmark
results produced by three different deep learning methods are provided. In
contrast to our previously presented dataset (pressure recordings) for acoustic
FWI (referred to as OpenFWI), the seismic dataset in
$\mathbf{\mathbb{E}^{FWI}}$ has both vertical and horizontal components.
Moreover, the velocity maps in $\mathbf{\mathbb{E}^{FWI}}$ incorporate both P-
and S-wave velocities. While the multicomponent data and the added S-wave
velocity make the data more realistic, more challenges are introduced regarding
the convergence and computational cost of the inversion. We conduct
comprehensive numerical experiments to explore the relationship between P-wave
and S-wave velocities in seismic data. The relation between P- and S-wave
velocities provides crucial insights into the subsurface properties such as
lithology, porosity, fluid content, etc. We anticipate that
$\mathbf{\mathbb{E}^{FWI}}$ will facilitate future research on multiparameter
inversions and stimulate endeavors in several critical research topics of
carbon-zero and new energy exploration. All datasets, codes and relevant
information can be accessed through our website at https://efwi-lanl.github.io/
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