The observed fracture patterns in outcrops may have implications on fluid flow and reservoir modelling in subsurface reservoirs, and we have therefore undertaken a case study of fracturing associated with regional folding in Iraqi Kurdistan.
Bearing this argument in mind, we explore how permeability can be predicted consistently within the Kozeny Carman formalism, by varying the radii of the conduits, their number, and type for effective modeling of the subsurface reservoir.
This chapter explores what controls the uncertainties, and how the data is gathered and interpreted in order to form a model of the subsurface reservoir.
This paper develops a mathematical model of how subsurface reservoir uncertainty, in particular estimated ultimate recovery (EUR), can evolve over time.
Outcrops are excellent sources of continuous data which can be incorporated into subsurface reservoir modeling either by 1) building an outcrop "reservoir" model, or 2) identifying and developing outcrop analogs of subsurface reservoirs.
There have been very few studies regarding facies modeling on this producing field, thus creating a gap in understanding the facies distribution of the subsurface reservoirs.
This seminar will address how numerical modeling of depositional systems can be used to test geological hypotheses and improve our understanding of subsurface reservoirs.
Geomechanical modeling is an integral part of Australia's GEODISC research program to ensure the safe storage of carbon dioxide in subsurface reservoirs.
Hui, M. & Mallison, B. System and Method for Predicting Fluid Flow Characteristics within Fractured Subsurface Reservoirs.
Geomechanical modelling of fault stability is an integral part of Australia's GEODISC research program to ensure the safe storage of carbon dioxide in subsurface reservoirs.
It may condense out of the Martian atmosphere as pure water, or rise up as salty brines from subsurface reservoirs.
