In this work, we study the parallel-in-time iterative solution of coupled flow and geomechanics in porous media, modelled by a two-field formulation of Biot's equations. In particular, we propose a new version of the fixed-stress splitting method, which has been widely used as solution method of these problems. This new approach forgets about the sequential nature of the temporal variable and considers the time direction as a further direction for parallelization. The method is partially parallel-in-time. We present a rigorous convergence analysis of the method and numerical experiments to demonstrate the robust behaviour of the algorithm
We propose a new formulation along with a family of finite element schemes for the approximation of ...
The consolidation theory was developed in a three-dimensional (3D) setting by Biot, giving rise to a...
This paper concerns monolithic and splitting-based iterative procedures for the coupled nonlinear th...
In this work, we study the parallel-in-time iterative solution of coupled flow and geomechanics in p...
This paper is concerned with the analysis of coupled mixed finite element methods applied to the Bio...
The fixed-stress splitting scheme is a popular method for iteratively solving the Biot equations. Th...
We address numerical solvers for a poromechanics model particularly adapted for soft materials, as i...
In this paper we develop adaptive iterative coupling schemes for the Biot system modeling coupled po...
In this work, we are interested in efficiently solving the quasi-static, linear Biot model for poroe...
Efficient and accurate poroelasticity models are critical in modeling geophysical problems such as o...
The fixed-stress split method has been widely used as solution method in the coupling of flow and ge...
In this thesis we study the optimization of iterative schemes as both linearization methods, and as ...
International audienceIn this paper we consider algorithms for modeling complex processes in porous ...
In this work, we are interested in efficiently solving the quasi‐static, linear Biot model for poroe...
We consider a non-linear extension of Biot’s model for poromechanics, wherein both the fluid flow an...
We propose a new formulation along with a family of finite element schemes for the approximation of ...
The consolidation theory was developed in a three-dimensional (3D) setting by Biot, giving rise to a...
This paper concerns monolithic and splitting-based iterative procedures for the coupled nonlinear th...
In this work, we study the parallel-in-time iterative solution of coupled flow and geomechanics in p...
This paper is concerned with the analysis of coupled mixed finite element methods applied to the Bio...
The fixed-stress splitting scheme is a popular method for iteratively solving the Biot equations. Th...
We address numerical solvers for a poromechanics model particularly adapted for soft materials, as i...
In this paper we develop adaptive iterative coupling schemes for the Biot system modeling coupled po...
In this work, we are interested in efficiently solving the quasi-static, linear Biot model for poroe...
Efficient and accurate poroelasticity models are critical in modeling geophysical problems such as o...
The fixed-stress split method has been widely used as solution method in the coupling of flow and ge...
In this thesis we study the optimization of iterative schemes as both linearization methods, and as ...
International audienceIn this paper we consider algorithms for modeling complex processes in porous ...
In this work, we are interested in efficiently solving the quasi‐static, linear Biot model for poroe...
We consider a non-linear extension of Biot’s model for poromechanics, wherein both the fluid flow an...
We propose a new formulation along with a family of finite element schemes for the approximation of ...
The consolidation theory was developed in a three-dimensional (3D) setting by Biot, giving rise to a...
This paper concerns monolithic and splitting-based iterative procedures for the coupled nonlinear th...