Deep saline aquifers are among the most favorable geological sites for short-and long-term
carbon geosequestration. Injection of CO2 into aquifers causes various hydro-physical …

Abstract A POD-TPWL reduced-order modeling framework is developed to simulate and
optimize the injection stage of CO 2 storage operations. The method combines trajectory …

Estimating the ultimate storage capacity of deep saline aquifers is important to address the
formation potential to store the envisioned large volumes of CO 2. Injection data (ie injection …

In geological CO2 storage, designing the optimal well control strategy for CO2 injection to
maximize CO2 storage while minimizing the associated geomechanical risks is not trivial …

1College of Mechanics and Materials, Hohai University, Nan**g 210024, PR China
2College of Water Conservancy and Hydropower Engineering, Hohai University, Nan**g …

Simulating CO2 storage under geomechanical risks frequently involves substantial
computational costs due to the coupling between multiphase flow and geomechanics …

Understanding pressure and plume propagation in the reservoir is an essential component
of feasibility and risk assessment of geologic carbon sequestration operations. Detailed …

Safe storage of CO2 in saline aquifers depends on CO2 migration rate, accumulation, and
trap** inside saline aquifers that have intrinsic heterogeneity. This heterogeneity can be in …

The extent of plume migration as injected CO2 displaces the native reservoir fluids is a
crucial performance metric to ensure safe and effective geologic sequestration. In this paper …

The fluid mobilities and the lateral extent of the CO 2 plume and the dry-out zone are among
important unknowns required to effectively manage CO 2 storage in saline aquifers projects …