In an effort to promote awareness and understanding of the phenomena of induced seismicity, geomechanical modeling is applied to large publicly available datasets to demonstrate the potential for bolstering social license. The Material Point Method (MPM) is used to simulate the interaction of fault systems with regional stresses. By combining mechanical results of the simulation to create induced seismicity potential (ISP) proxies, mapsn are generated to express areas of high and low inducement potential of seismic events. The results are compared to recent earthquake epicenter and injection well data. High coincidence of earthquake epicenters with regions of predicted high induced seismicity potential suggests the workflow presented could be deployed to quantify the risk of induced seismicity associated with the location of high-volume injection wells. The addition of a tool to assess the impact of location, not only injection volumes, is another critical step towards responsible regulation of injection wells, and mitigation of induced seismic events.
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© 2016 Nicholas M. Umholtz et al., published by Sciendo
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