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Mathematical Geosciences

, 43:799 | Cite as

Extracting Coseismic Signals from Groundwater Level

  • Ting Wang
  • Mark Bebbington
  • David Harte
Article

Abstract

There has been no statistical examination of the possible link between earthquakes and the transient hydrological response of a well with potentially hundreds of responses. We propose an algorithm for automatically detecting anomalous transient changes in groundwater level (signals) based on a moving average of the variance of the first differences in water level. This is tested on 4 years of groundwater level data sampled at 1-minute intervals (approximately 2 million data) from the Tangshan Well, ∼100 km southeast of Beijing, using the global catalog of earthquakes of minimum magnitude 6.0 during the same period (600 events). We investigate the relationship between the extracted signals and the arrival times of various seismic waves, in particular, the earliest P phase, S phase, Love wave, and Rayleigh wave arrivals. The detection probability is estimated as a function of the earthquake characteristics magnitude, well-epicenter distance, depth, and azimuth from the well.

Keywords

Point process Mutual information Regression Groundwater level Statistical seismology 

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Copyright information

© International Association for Mathematical Geosciences 2011

Authors and Affiliations

  1. 1.Volcanic Risk SolutionsMassey UniversityPalmerston NorthNew Zealand
  2. 2.Statistics Research AssociatesWellingtonNew Zealand

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