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Fig 1.

Domain geometry, initial, and boundary conditions used to conduct the numerical study.

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Table 1.

Physical properties obtained from field measurements and used in the CFD reservoir-scale model.

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Table 1 Expand

Table 2.

Summary of numerical experiments considered for the sensitivity analysis.

The base parameters for each numerical experiment were kept constant to those presented later in Table 3.

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Table 3.

Physical properties obtained from field measurements and used in the CFD reservoir-scale model.

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Table 3 Expand

Fig 2.

Heterogeneity profiles of a) porosity, b) permeability, and c) initial water saturation in the studied heavy oil reservoir.

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Fig 3.

Relative permeability curve measured from the core analysis of the studied reservoir.

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Fig 4.

Schematic of the small section of the completion liner used to calculate the viscous and inertial resistance to simulate this liner as a porous region.

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Table 4.

Results for the calculation of the inertial and viscous porous resistances for the slotted liner.

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Table 4 Expand

Fig 5.

Representation of the mesh used in this study, a) general view, b) focus on the well and liner regions.

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Table 5.

Element count per region obtained for the meshing of the domain using unstructured polyhedral elements.

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Table 6.

Calculated breakthrough times for the porosity and permeability sensitivity analysis.

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Fig 6.

Dynamics of the water movement near the wellbore for the permeability sensitivity analysis, a) at k = 0.01d, b) at k = 100d. 3D renders taken at the breakthrough time.

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Fig 7.

Production profile obtained for the a) porosity and b) permeability sensitivity analysis.

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Table 7.

Calculated breakthrough times for the oil viscosity and density sensitivity analysis.

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Table 7 Expand

Fig 8.

Dynamics of the water movement near the wellbore for the viscosity sensitivity analysis, a) at μoil = 0.001 Pa∙s, b) at μoil = 100 Pa∙s. 3D renders taken at the breakthrough time.

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Fig 9.

Production profile obtained for the a) viscosity and b) density sensitivity analysis.

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Table 8.

Calculated breakthrough times for the oil viscosity and density sensitivity analysis.

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Table 8 Expand

Fig 10.

Dynamics of the water movement near the wellbore for the Swi sensitivity analysis, a) at Swi = 0%, b) at Swi = 40%. 3D renders taken at the breakthrough time.

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Fig 11.

Production profile obtained for the Swi sensitivity analysis.

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Fig 12.

Aquifer movement profile obtained or the homogeneous model.

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Fig 13.

Aquifer movement profile obtained or the heterogeneous model.

General view at the top, lateral view at the bottom.

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Fig 14.

Results of the history match for the homogeneous and heterogeneous case, a) comparison against the reported oil and water production, b) comparison against the reported water-cut.

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Table 9.

Mean absolute error between the numerical results and the field data.

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Table 9 Expand