Adaptive mesh optimization for simulation of immiscible viscous fingering

Mostaghimi, Peyman, Kamali, Fatemeh, Jackson, Matthew D. , Muggeridge, Ann H. and Pain, Christopher C. (2016) Adaptive mesh optimization for simulation of immiscible viscous fingering. SPE Journal, 21 06: 2250-2259. doi:10.2118/173281-PA


Author Mostaghimi, Peyman
Kamali, Fatemeh
Jackson, Matthew D.
Muggeridge, Ann H.
Pain, Christopher C.
Title Adaptive mesh optimization for simulation of immiscible viscous fingering
Journal name SPE Journal   Check publisher's open access policy
ISSN 1086-055X
1930-0220
Publication date 2016-12-01
Sub-type Article (original research)
DOI 10.2118/173281-PA
Open Access Status Not yet assessed
Volume 21
Issue 06
Start page 2250
End page 2259
Total pages 10
Place of publication Richardson, TX, United States
Publisher Society of Petroleum Engineers
Collection year 2017
Language eng
Abstract Viscous fingering can be a major concern when waterflooding heavy-oil reservoirs. Most commercial reservoir simulators use low-order finite-volume/-difference methods on structured grids to resolve this phenomenon. However, this approach suffers from a significant numerical-dispersion error because of insufficient mesh resolution, which smears out some important features of the flow. We simulate immiscible incompressible two-phase displacements and propose the use of unstructured control-volume finite-element (CVFE) methods for capturing viscous fingering in porous media. Our approach uses anisotropic mesh adaptation where the mesh resolution is optimized on the basis of the evolving features of flow. The adaptive algorithm uses a metric tensor field dependent on solution-interpolation-error estimates to locally control the size and shape of elements in the metric. The mesh optimization generates an unstructured finer mesh in areas of the domain where flow properties change more quickly and a coarser mesh in other regions where properties do not vary so rapidly. We analyze the computational cost of mesh adaptivity on unstructured mesh and compare its results with those obtained by a commercial reservoir simulator on the basis of the finite-volume methods.
Q-Index Code C1
Q-Index Status Provisional Code
Institutional Status Non-UQ

Document type: Journal Article
Sub-type: Article (original research)
Collection: School of Chemistry and Molecular Biosciences
 
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Created: Mon, 03 Apr 2017, 14:39:18 EST by Fatemeh Kamali on behalf of UQ Energy Initiative