CO2–brine–rock interaction impacts the behavior and efficiency of CO2 geological storage;
a thorough understanding of these impacts is important. A lot of research in the past has …

Deep geothermal energy exploitation has gained a lot of attentions in energy field due to its
large reserve. Enhanced geothermal system (EGS) is the only one mode to explore hot dry …

Hydraulic fracturing has transformed the international energy landscape by becoming the go-
to method for the exploitation of natural gas from unconventional shale reservoirs. However …

The injection and storage of anthropogenic CO 2 in the subsurface is being deployed as a
climate change mitigation tool; however, diagenetic-paragenetic heterogeneity in sandstone …

Carbon capture and storage (CCS) underground is a viable solution to reduce atmospheric
CO 2 concentrations. In order to perform this task safely, CO 2-induced chemo-mechanical …

The CO 2 trap mechanisms during carbon capture and storage (CCS) are classified into
structural, residual, solution, and mineral traps. The latter is considered as the most …

Deep saline aquifers and depleted carbonate reservoirs are generally considered promising
locations for subsurface CO 2 storage. However, carbonate minerals particularly calcite can …

The mechanical behavior of rock is one of the most important parameters to evaluate the
potential for geological carbon dioxide (CO 2) sequestration (GCS); therefore, the study of …

The effects of CO 2-brine-rock interaction on the physical and macro-mechanical properties
of rock have been extensively studied in CO 2 sequestration-related research. However …

A good understanding of CO2–brine–rock interactions that cause microscale damage to the
microstructure of sandstone, affecting pore fluid transport and reservoir stability, is important …