We describe recent developments in the design and implementation of finite element methods for the compressible Navier-Stokes equations modeling chemically reactive flows. The emphasize is on the low-Mach number regime including the limit case of incompressible flow. The most important ingredients are appropriate finite element discretizations, residual driven a posteriori mesh refinement, fully coupled defect-correction iteration for linearization, and optimal multigrid preconditioning. The potential of automatic mesh adaptation together with multilevel techniques is illustrated by 2D and 3D simulations of laminar methane combustion including detailed reaction mechanisms
A generic solver in a parallel Cartesian adaptive mesh refinement framework is extended to simulate ...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach numbe...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach number...
Abstract. We describe recent developments in the design and implementation of finite element methods...
We describe recent developments in the design and implementation of finite element methods for the N...
We describe recent developments in the design and implementation of finite el-ement methods for the ...
We develop an adaptive finite element algorithm for reactive flow simulations. The underlying equati...
We investigate adaptive finite element methods for low Mach, steady, laminar combustion. The finite ...
A new parallel implicit adaptive mesh refinement (AMR) algorithm is developed for the prediction of ...
A new parallel implicit adaptive mesh refinement (AMR) algorithm is developed for the prediction of ...
A solution-adaptive Navier-Stokes technique is presented which incorporates a fully implicit solutio...
Abstract: A parallel adaptive mesh refinement (AMR) algorithm is proposed and applied to the predict...
Aim of this work is the examination of numerical methods for the solution of large systems of PDE'...
Adaptive mesh refinement procedures with finite elements have been used for some time in computing c...
Adaptive mesh refinement procedures with finite elements have been used for some time in computing c...
A generic solver in a parallel Cartesian adaptive mesh refinement framework is extended to simulate ...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach numbe...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach number...
Abstract. We describe recent developments in the design and implementation of finite element methods...
We describe recent developments in the design and implementation of finite element methods for the N...
We describe recent developments in the design and implementation of finite el-ement methods for the ...
We develop an adaptive finite element algorithm for reactive flow simulations. The underlying equati...
We investigate adaptive finite element methods for low Mach, steady, laminar combustion. The finite ...
A new parallel implicit adaptive mesh refinement (AMR) algorithm is developed for the prediction of ...
A new parallel implicit adaptive mesh refinement (AMR) algorithm is developed for the prediction of ...
A solution-adaptive Navier-Stokes technique is presented which incorporates a fully implicit solutio...
Abstract: A parallel adaptive mesh refinement (AMR) algorithm is proposed and applied to the predict...
Aim of this work is the examination of numerical methods for the solution of large systems of PDE'...
Adaptive mesh refinement procedures with finite elements have been used for some time in computing c...
Adaptive mesh refinement procedures with finite elements have been used for some time in computing c...
A generic solver in a parallel Cartesian adaptive mesh refinement framework is extended to simulate ...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach numbe...
With adaptive-grid computational methodologies and judicious use of compressible and low Mach number...