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Data accompanying the paper entitled "Rapid normal stress oscillations cause dilatation and weakening in gouge-bearing faults"
Jianye Chen; André R Niemeijer; (2022)
In some scenarios, faults in the crust are withstanding rapid stress changes of different magnitudes, such as those from nearby or remote earthquakes, seasonal impoundment and... -
Geomechanical, seismological, and geodetic data pertaining to the Groningen gas field: a data package used in the "Mmax II Workshop", on constraining the maximum earthquake magnitude in the Groningen field
Oates, Stephen; Landman, Anke Jannie ; van der Wal, Onno ; Baehr, Hermann; Piening , Harry; (2022)
The operator of the Groningen gas field, the Nederlandse Aardolie Maatschappij (NAM) has been developing and refining a seismic hazard and risk model as part of the response to... -
Microstructural data used in “Drill core from seismically active sandstone gas reservoir yields clues to internal deformation mechanisms”
Verberne, Berend Antonie; Hangx, Suzanne J.T.; Pijnenburg, Ronald P.J.; Hamers, Maartje F.; Drury, Martyn R.; Spiers, Christopher J.; (2022)
Europe’s largest gas field, the Groningen field (the Netherlands), is widely known for induced subsidence and seismicity caused by gas pressure depletion and associated... -
Dynamic Model (Eclipse Version) to predict the formation pressure response to gas extraction in the Groningen gas field, The Netherlands
Tummala , Pradeep ; Landman, Anke Jannie ; van Elk, Jan; (2023)
The dynamic model of the Groningen gas field is used to predict the flow of water and gas in the reservoir and the areal distribution of reservoir pressure resulting from the... -
In-situ Distributed Strain Sensing (DSS) data from the Zeerijp-3a well in the Groningen gas field, the Netherlands. Period 2015-2021
Kole, Pepijn R.; van Eijs, Rob M.H.E.; (2022)
The Groningen gas field is the largest gas field in Europe. Gas production in this field has led to seismicity and surface subsidence, both believed to be caused by compaction...
