A numerical approximation of the acoustic wave equation is presented. The spatial discretization is based on conforming spectral elements, whereas we use finite difference Newmark's explicit integration schemes for the temporal discretization. A rigorous stability analysis is developed for the discretized problem providing an upper bound for the time step At. We present several numerical results concerning stability and convergence properties of the proposed numerical methods
A family of implicit-in-time mixed finite element schemes is presented for the numerical approximati...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
AbstractA numerical approximation of the acoustic wave equation is presented. The spatial discretiza...
The acoustic wave equation is here discretized by conforming spectral elements in space and by the s...
A numerical approximation of the acoustic wave equation with first order absorbing boundary conditio...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
In recent years there has been an increased attention to the accurate simulation of wave propagation...
In the last decades, an increasing number of works focused on the simulation of acoustic waves propa...
Highly efficient algorithms are needed for full wave modelling in large-scale realistic un-bounded m...
This paper presents a wave-based numerical scheme based on a spectral element method, coupled with a...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
State-of-the-art computational methods for linear acoustics are reviewed. The equations of linear ac...
A family of implicit-in-time mixed finite element schemes is presented for the numerical approximati...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
AbstractA numerical approximation of the acoustic wave equation is presented. The spatial discretiza...
The acoustic wave equation is here discretized by conforming spectral elements in space and by the s...
A numerical approximation of the acoustic wave equation with first order absorbing boundary conditio...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
Advantages of dealing with acoustic wave equations by high-order methods are their enhanced accuracy...
In recent years there has been an increased attention to the accurate simulation of wave propagation...
In the last decades, an increasing number of works focused on the simulation of acoustic waves propa...
Highly efficient algorithms are needed for full wave modelling in large-scale realistic un-bounded m...
This paper presents a wave-based numerical scheme based on a spectral element method, coupled with a...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
State-of-the-art computational methods for linear acoustics are reviewed. The equations of linear ac...
A family of implicit-in-time mixed finite element schemes is presented for the numerical approximati...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...
Aim of this paper is studying an effective hybrid finite element - spectral element method for the a...