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Effect of convective mixing process on storage of CO2 in saline aquifers with layered permeability

Convective mixing of free-phase CO2 and brine in saline aquifers is an established technique to accelerate the CO2 dissolution process. Correct estimation of the convection onset time and rate of CO2 dissolution into brine are two crucial parameters regarding safety issues, as the timescale for diss...

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Main Authors: Taheri, Amir, Torsæter, Ole, Lindeberg, Erik Gøsta Brun, Hadia, Nanji, Wessel-Berg, Dag
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creator Taheri, Amir
Torsæter, Ole
Lindeberg, Erik Gøsta Brun
Hadia, Nanji
Wessel-Berg, Dag
description Convective mixing of free-phase CO2 and brine in saline aquifers is an established technique to accelerate the CO2 dissolution process. Correct estimation of the convection onset time and rate of CO2 dissolution into brine are two crucial parameters regarding safety issues, as the timescale for dissolution corresponds to the same time over which the free-phase CO2 has a chance to leak out from the storage site. In real practice, underground formations are heterogeneous with a layered structure, but the convective mixing in heterogeneous porous media has received less attention than the homogeneous one. This study aims to develop a basic understanding of the role of layered permeability media (layered structure with variation in permeability vertically) on the behavior of convective mixing via well-controlled laboratory experiments. The effects of layering and layer properties on the rate of dissolution of CO2 in water and geometries of the formed convection fingers are studied using a precise experimental set-up with layered-permeability Hele-Shaw cell geometry.
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title Effect of convective mixing process on storage of CO2 in saline aquifers with layered permeability
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