Seismic Imaging of the Southern Vienna Basin (Austria) Using Probabilistic Ambient‐Noise Tomography

ABSTRACT Surface‐wave ambient noise tomography has proven to be a cost‐effective and reliable tool for imaging sedimentary basins when coupled with dense nodal seismic arrays. Here, we deployed 181 seismic nodes in two asynchronous phases across the southern Vienna Basin in spring 2024. We retrieve fundamental‐mode Rayleigh and Love wave group velocity dispersion curves from seismic noise cross‐correlations. We then obtained a pseudo three‐dimensional (3D) model and a seismic radial anisotropy () model of the area from a 2‐step approach that employs trans‐dimensional probabilistic (Bayesian) inference. The 3D model highlights the structure of the Neogene basin. The 3D seismic radial anisotropy reveals several patterns, which may help constrain the presence and nature of faults and geologic fabrics in the study area. Combined, these models constrain first‐order features of the basin structure that will be useful for planning further geothermal exploration. In particular, this work guides future detailed, spatially targeted two‐dimensional/3D seismic reflection surveys.

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Publication Details

Journal
Geophysical Prospecting
Published
2025-09-01
DOI
https://doi.org/10.1111/1365-2478.70074
Citations
2
Primary Topic
Seismic Waves and Analysis
Type
article
Field-Weighted Citation Impact
3.73
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article

Seismic Imaging of the Southern Vienna Basin (Austria) Using Probabilistic Ambient‐Noise Tomography

Jeremy M. Gosselin, Götz Bokelmann, Richard S. Kramer, Clément Estève et al.
2 citations
Geophysical Prospecting
Seismic Waves and Analysis
3.73
article

Seismic Imaging of the Southern Vienna Basin (Austria) Using Probabilistic Ambient‐Noise Tomography

Jeremy M. Gosselin, Götz Bokelmann, Richard S. Kramer, Clément Estève, Yang Lu, Gregor Götzl
article en
2 citations

Abstract

ABSTRACT Surface‐wave ambient noise tomography has proven to be a cost‐effective and reliable tool for imaging sedimentary basins when coupled with dense nodal seismic arrays. Here, we deployed 181 seismic nodes in two asynchronous phases across the southern Vienna Basin in spring 2024. We retrieve fundamental‐mode Rayleigh and Love wave group velocity dispersion curves from seismic noise cross‐correlations. We then obtained a pseudo three‐dimensional (3D) model and a seismic radial anisotropy () model of the area from a 2‐step approach that employs trans‐dimensional probabilistic (Bayesian) inference. The 3D model highlights the structure of the Neogene basin. The 3D seismic radial anisotropy reveals several patterns, which may help constrain the presence and nature of faults and geologic fabrics in the study area. Combined, these models constrain first‐order features of the basin structure that will be useful for planning further geothermal exploration. In particular, this work guides future detailed, spatially targeted two‐dimensional/3D seismic reflection surveys.

Geophysical ProspectingVol. 73(7)
University of Vienna (AT), Geological Survey of Canada (CA), University of Helsinki (FI), Central Institution for Meteorology and Geodynamics (AT), Inte:Ligand (Austria) (AT)
Openalex Percentile: Top 7%
Seismic Waves and Analysis
3.73
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