To develop realistic, broadly applicable storage coefficients, several key issues have been addressed, including the various trapping mechanisms, the temporal nature of those mechanisms, and the effects of scale on data density and, therefore, assessment strategies.
The development of storage coefficients has considered each of the key trapping mechanisms (dissolution, mineralization, and physical trapping of the gas phase) at assessment scales ranging from the local to the continental.
A full presentation of all the background materials, data sets, and model elements used by the EERC to develop the storage coefficients is beyond the scope of this paper but is available in detail in IEA-GHG (2009).
The application of coefficients will provide stakeholders and decision makers with a means by which key technical factors that will affect the capacity of a geologic formation to store CO2 can be considered on a defensible, mathematically consistent basis.
To develop realistic, broadly applicable storage coefficients, several key issues have been addressed, including the various trapping mechanisms, the temporal nature of those mechanisms, and the effects of scale on data density and, therefore, assessment strategies. The development of storage coefficients has considered each of the key trapping mechanisms (dissolution, mineralization, and physical trapping of the gas phase) at assessment scales ranging from the local to the continental. A full presentation of all the background materials, data sets, and model elements used by the EERC to develop the storage coefficients is beyond the scope of this paper but is available in detail in IEA-GHG (2009). The application of coefficients will provide stakeholders and decision makers with a means by which key technical factors that will affect the capacity of a geologic formation to store CO2 can be considered on a defensible, mathematically consistent basis.
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