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DOE OSTI · 3005109

Utilizing 3D Mechanical Earth Models for Calibration and Validation in a Large-Scale Carbon Capture and Storage Project in North Dakota

Jo, Thomas H.·Djezzar, Sofiane·Barajas-Olalde, César·Richards, Trevor L.
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Abstract

Conference paper presented at 17th International Conference on Greenhouse Gas Control Technologies (GHGT-17), Calgary, Alberta, Canada, October 20–24, 2024. Three-dimensional (3D) mechanical earth models (MEMs) are pivotal in assessing geological sites for carbon dioxide (CO 2 ) storage and mitigating potential risks associated with storage and injection. The Energy & Environmental Research Center is exploring innovative carbon storage monitoring techniques at a CO 2 storage site near Beulah, North Dakota. These methods aim to provide lower-impact, faster feedback for commercial carbon capture and storage (CCS) projects. The research includes monitoring CO 2 injection using various approaches: 1) an automated, integrated modular monitoring station; 2) time-lapse electromagnetic (EM) field surveys; 3) drone-based surveillance; 4) time-lapse seismic techniques; and 5) advanced wellbore monitoring.

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02 PETROLEUM47 OTHER INSTRUMENTATION54 ENVIRONMENTAL SCIENCES58 GEOSCIENCES99 GENERAL AND MISCELLANEOUSCarbon ManagementCO2 InjectionGeologic StorageLow ImpactNovel Monitoring Techniques

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Jo, Thomas H., Djezzar, Sofiane, Barajas-Olalde, César, Richards, Trevor L.. 2024-10-23. Utilizing 3D Mechanical Earth Models for Calibration and Validation in a Large-Scale Carbon Capture and Storage Project in North Dakota. https://doi.org/10.2139/ssrn.5027942

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