Abstract We present a discretization of the linear advection of differential forms on bounded domains. The framework established in [4] is extended to incorporate the Lie derivative, L, by means of Cartan’s homotopy formula. The method is based on a physics-compatible discretization with spectral accuracy. It will be shown that the derived scheme has spectral convergence with local mass conservation. Artificial dispersion depends on the order of time integration.
We study the discretization of linear transient transport problems for differential forms on bounded...
A new methodology utilizing the spectral analysis of local differential opera-tors is proposed to de...
Goal was to construct local high-order difference approximations of differential operators on nonuni...
Mimetic discretization methods are emerging techniques designed to preserve, as much as possible, pr...
Advection is at the heart of fluid dynamics and is responsible for many interesting phenomena. Unfor...
Solving Partial Differential Equations (PDE's) numerically requires that the PDE or system of PDE's ...
The Mimetic Finite Difference (MFD) methods for PDEs mimic crucial properties of mathematical syste...
Abstract In this paper, we present a numerical technique for performing Lie advection of arbitrary d...
This chapter addresses the topological structure of steady, anisotropic, inhomogeneous diffusion pro...
Legendre and Chebyshev collocation schemes are proposed for the numerical approximation of first ord...
This thesis aims to introduce mesh refinement into the Mimetic Spectral Element Method (MSEM). The c...
Abstract. Compatible discretizations transform partial differential equations to discrete algebraic ...
In this paper, the spectral-element method formulation is extended to deal with semi-infinite and in...
A mixed mimetic spectral element method is applied to solve the rotating shallow water equations. Th...
We deal with the discretization of generalized transient advection problems for differentialforms on...
We study the discretization of linear transient transport problems for differential forms on bounded...
A new methodology utilizing the spectral analysis of local differential opera-tors is proposed to de...
Goal was to construct local high-order difference approximations of differential operators on nonuni...
Mimetic discretization methods are emerging techniques designed to preserve, as much as possible, pr...
Advection is at the heart of fluid dynamics and is responsible for many interesting phenomena. Unfor...
Solving Partial Differential Equations (PDE's) numerically requires that the PDE or system of PDE's ...
The Mimetic Finite Difference (MFD) methods for PDEs mimic crucial properties of mathematical syste...
Abstract In this paper, we present a numerical technique for performing Lie advection of arbitrary d...
This chapter addresses the topological structure of steady, anisotropic, inhomogeneous diffusion pro...
Legendre and Chebyshev collocation schemes are proposed for the numerical approximation of first ord...
This thesis aims to introduce mesh refinement into the Mimetic Spectral Element Method (MSEM). The c...
Abstract. Compatible discretizations transform partial differential equations to discrete algebraic ...
In this paper, the spectral-element method formulation is extended to deal with semi-infinite and in...
A mixed mimetic spectral element method is applied to solve the rotating shallow water equations. Th...
We deal with the discretization of generalized transient advection problems for differentialforms on...
We study the discretization of linear transient transport problems for differential forms on bounded...
A new methodology utilizing the spectral analysis of local differential opera-tors is proposed to de...
Goal was to construct local high-order difference approximations of differential operators on nonuni...