Convergence analysis of single rate and multirate fixed stress split iterative coupling schemes in heterogeneous poroelastic media

Recently, the accurate modeling of flow‐structure interactions has gained more attention and importance for both petroleum and environmental engineering applications. Of particular interest is the coupling between subsurface flow and reservoir geomechanics. Different single rate and multirate iterat...

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Veröffentlicht in:Numerical methods for partial differential equations 2023-07, Vol.39 (4), p.3170-3194
Hauptverfasser: Almani, Tameem, Kumar, Kundan, Wheeler, Mary F.
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Kumar, Kundan
Wheeler, Mary F.
description Recently, the accurate modeling of flow‐structure interactions has gained more attention and importance for both petroleum and environmental engineering applications. Of particular interest is the coupling between subsurface flow and reservoir geomechanics. Different single rate and multirate iterative and explicit coupling schemes have been proposed and analyzed in the past. In addition, Banach fixed point contraction results were obtained for iterative coupling schemes, and conditionally stable results were obtained for explicit coupling schemes. In this work, we will consider the mathematical analysis of the single rate and multirate fixed stress split iterative coupling schemes for spatially heterogeneous poroelastic media. We will re‐establish the contractivity for both schemes in the localized case, and we will show that heterogeneities come at the expense of imposing more restricted conditions on the number of fine flow time steps that can be taken within one coarse mechanics time step in the multirate case. Our mathematical analysis is supplemented by numerical simulations validating our derived upper bounds. To the best of our knowledge, this is the first rigorous mathematical analysis of the multirate fixed‐stress split iterative coupling scheme in heterogeneous poroelastic media.
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subjects contraction mapping
Coupling
Environmental engineering
fixed-stress split iterative coupling
Geomechanics
heterogeneous poroelastic media
Iterative methods
Mathematical analysis
Mathematical models
Mathematics
MATHEMATICS AND COMPUTING
Poroelasticity
Upper bounds
title Convergence analysis of single rate and multirate fixed stress split iterative coupling schemes in heterogeneous poroelastic media
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