Depth-dependent seismic sensing of groundwater recovery from the atmospheric-river storms of 2023

In early 2023, a series of intense atmospheric-river storms eased California's historic drought, yet the spatiotemporal extent of groundwater recovery remains poorly understood. We tracked two-decadal changes in groundwater in Greater Los Angeles using seismic ambient-field interferometry. The derived seismic hydrographs reveal distinct expressions of groundwater and surficial water droughts: Whereas surface and near-surface water storage nearly fully recovered in the epic wet season of 2023, only about 25% of the groundwater lost since 2006 was restored. On a decadal scale, we find substantial depletion in aquifers below 50-meter depth, with only limited storm-related recovery. Our analysis underscores the need to monitor deep aquifers for a more complete assessment of total water deficits, using high-resolution tools such as seismic sensing.

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Publication Details

Journal
Science
Published
2025-02-13
DOI
https://doi.org/10.1126/science.adr6139
Citations
19
Primary Topic
Seismic Waves and Analysis
Type
article
Field-Weighted Citation Impact
35.46
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article

Depth-dependent seismic sensing of groundwater recovery from the atmospheric-river storms of 2023

Yujie Zheng, William L. Ellsworth, Shujuan Mao, Gregory C. Beroza
19 citations
Science
Seismic Waves and Analysis
35.46
article

Depth-dependent seismic sensing of groundwater recovery from the atmospheric-river storms of 2023

Yujie Zheng, William L. Ellsworth, Shujuan Mao, Gregory C. Beroza
article en
19 citations

Abstract

In early 2023, a series of intense atmospheric-river storms eased California's historic drought, yet the spatiotemporal extent of groundwater recovery remains poorly understood. We tracked two-decadal changes in groundwater in Greater Los Angeles using seismic ambient-field interferometry. The derived seismic hydrographs reveal distinct expressions of groundwater and surficial water droughts: Whereas surface and near-surface water storage nearly fully recovered in the epic wet season of 2023, only about 25% of the groundwater lost since 2006 was restored. On a decadal scale, we find substantial depletion in aquifers below 50-meter depth, with only limited storm-related recovery. Our analysis underscores the need to monitor deep aquifers for a more complete assessment of total water deficits, using high-resolution tools such as seismic sensing.

ScienceVol. 387(6735)
The University of Texas at Dallas (US), Stanford Medicine (US), The University of Texas at Austin (US), University of North Texas at Dallas (US), Stanford University (US)
Clean water and sanitation
Openalex Percentile: Top 0%
Seismic Waves and Analysis
35.46
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Depth-dependent seismic sensing of groundwater recovery from the atmospheric-river storms of 2023 — Yujie Zheng, William L. Ellsworth, et al. · Science (2025) | TGRS Research Map | TGRS