Potential Seismicity Along Basement Faults Induced by Geological Carbon Sequestration

Large-scale CO2 sequestration into geological formations has been suggested to reduce CO2 emissions from industrial activities. However, much like enhanced geothermal stimulation and wastewater injection, CO2 sequestration has a potential to induce earthquake along weak faults, which can be consider...

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Veröffentlicht in:Geophysical research letters 2022-07, Vol.49 (13)
Hauptverfasser: Chang, Kyung Won, Yoon, Hongkyu, Martinez, M. J.
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Yoon, Hongkyu
Martinez, M. J.
description Large-scale CO2 sequestration into geological formations has been suggested to reduce CO2 emissions from industrial activities. However, much like enhanced geothermal stimulation and wastewater injection, CO2 sequestration has a potential to induce earthquake along weak faults, which can be considered a negative impact on safety and public opinion. This research shows the physical mechanisms of potential seismic hazards along basement faults driven by CO2 sequestration under variation in geological and operational constraints. Specifically we compare the poroelastic behaviors between multiphase flow and single-phase flow cases, highlighting specific needs of evaluating induced seismicity associated with CO2 sequestration. In contrast to single-phase injection scenario, slower migration of the CO2 plume than pressure pulse may delay accumulation of pressure and stress along basement faults that may not be mitigated immediately by shut-in of injection. The impact of multiphase flow system, therefore, needs to be considered for proper monitoring and mitigation strategies.
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In contrast to single-phase injection scenario, slower migration of the CO2 plume than pressure pulse may delay accumulation of pressure and stress along basement faults that may not be mitigated immediately by shut-in of injection. 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source Wiley-Blackwell Journals; Wiley Free Archive; Wiley-Blackwell AGU Digital Archive; EZB Electronic Journals Library
subjects basement fault
carbon sequestration
GEOSCIENCES
induced seismicity
multiphase flow
poroelastic coupling
title Potential Seismicity Along Basement Faults Induced by Geological Carbon Sequestration
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