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 …

In 2005, the IPPC Special report on carbon dioxide capture and storage (SRCCS)
summarized the state of knowledge about CCS as an emerging technology for reducing CO …

This third edition offers a comprehensive overview of the latest theories on flow, transport,
and heat-exchange processes in porous media. It also details sophisticated porous media …

CO2 will remain in supercritical (SC) state (ie p> 7.382 MPa and T> 31.04° C) under the
pressure (p) and temperature (T) conditions appropriate for geological storage. Thus, it is …

Carbon capture and geological storage (CCS) operations will require an environmental risk
analysis to determine, among other things, the risk that injected CO2 or displaced brine will …

CO 2 injection into deep saline aquifers has shown to be a feasible option, as for their large
storage capacity under safe operational conditions. Previous studies have revealed that CO …

The long‐term storage security of injected carbon dioxide (CO2) is an essential component
of geological carbon sequestration operations. In the postinjection phase, the mobile CO2 …

The injection of supercritical CO 2 in deep saline aquifers leads to the formation of a CO 2
plume that tends to float above the formation brine. As pressure builds up, CO 2 properties …

CO 2 injected into porous formations is accommodated by reduction in the volume of the
formation fluid and enlargement of the pore space, through compression of the formation …

Large-scale pressure increases resulting from carbon dioxide (CO 2) injection in the
subsurface can potentially impact caprock integrity, induce reactivation of critically stressed …