Geological carbon dioxide (CO2) storage is a means of reducing anthropogenic emissions.
Dissolution of CO2 into the brine, resulting in stable stratification, increases storage security …

The dissolution of carbon dioxide (CO 2) in deep saline aquifer water is recognized as one
of the fundamental mechanisms in the subsurface for storing significant quantities of CO 2 …

Injection of carbon dioxide (CO2) into saline aquifers is a promising tool for reducing
anthropogenic CO2 emissions. At reservoir conditions, the injected CO2 is buoyant relative …

We numerically examine solutal convection in porous media, driven by the dissolution of
carbon dioxide (CO 2) into water—an effective mechanism for CO 2 storage in saline …

Solubility trapping of carbon dioxide (CO2) in deep saline aquifers is considered one of the
most effective methods for carbon sequestration. Dissolution of CO2 into the brine may …

When carbon dioxide (CO2) dissolves into water, the density of water increases. This
seemingly insubstantial phenomenon has profound implications for geologic carbon …

Dissolution of CO 2 into brine is an important and favorable trapping mechanism for
geologic storage of CO 2. There are scenarios, however, where dissolved CO 2 may migrate …

Carbon capture and storage (CCS) is the only viable technology to mitigate carbon
emissions while allowing continued large‐scale use of fossil fuels. The storage part of CCS …

For purposes of geologic storage, CO2 would be injected into saline formations at
supercritical temperature and pressure conditions, and would form a separate phase that is …

The geologic sequestration of carbon dioxide (CO2) in structural and stratigraphic traps is a
viable option to reduce anthropogenic emissions. While dissolution of the CO2 stored in …