Three absorbing layers are investigated using standard rectilinear finite-difference schemes. The perfectly matched layer (PML) is compared with basic lossy layers terminated by two types of absorbing boundary conditions, all simulated using equivalent memory consumption. Lossy layers present the advantage of being scalar schemes, whereas the PML relies on a staggered scheme where both velocity and pressure are split. Although the PML gives the lowest reflection magnitudes over all frequencies and incidence angles, the most efficient lossy layer gives reflection magnitudes of the same order as the PML from mid- to high-frequency and for restricted incidence angles.Peer reviewe
It has been previously demonstrated that no reflection is generated when elastic (or electromagnetic...
A comparative analysis of two cylindrical complex-frequency-shifted perfectly matched layers (CFS-PM...
The perfectly matched layer (PML) absorbing boundary is employed in the space-time finite integratio...
Abstract: Perfectly matched layer (PML) absorbing boundary condition (ABC) is an important technique...
Various absorbing boundary conditions (ABCs) are compared in the analysis of the time-domain finite-...
International audienceExisting implementation of perfectly matched layers (PML) constraining the com...
Perfectly Matched Layers (PML) are widely used for the simulation of unbounded wave-like problems. ...
method is extended to include absorbing boundary conditions. Three different approaches are consider...
Different implementations of planar perfectly matched absorbers are studied under the unified framew...
Berenger's perfectly matched layers (PML) have been found to be very efficient as a material absorbi...
The perfectly matched layer (PML) technique is extended for a cell-centered finite-volume time-domai...
In the Finite Differences in the Time Domain (FD-TD) technique the knowledge of the field is often u...
This paper presents an in-depth analysis of Berenger's perfectly matched layer (PML) boundary trunca...
Abstract—The perfectly matched layer (PML) technique is extended for a cell-centered finite-volume t...
International audiencePerfectly matched layers (PMLs) are widely used for the numerical simulation o...
It has been previously demonstrated that no reflection is generated when elastic (or electromagnetic...
A comparative analysis of two cylindrical complex-frequency-shifted perfectly matched layers (CFS-PM...
The perfectly matched layer (PML) absorbing boundary is employed in the space-time finite integratio...
Abstract: Perfectly matched layer (PML) absorbing boundary condition (ABC) is an important technique...
Various absorbing boundary conditions (ABCs) are compared in the analysis of the time-domain finite-...
International audienceExisting implementation of perfectly matched layers (PML) constraining the com...
Perfectly Matched Layers (PML) are widely used for the simulation of unbounded wave-like problems. ...
method is extended to include absorbing boundary conditions. Three different approaches are consider...
Different implementations of planar perfectly matched absorbers are studied under the unified framew...
Berenger's perfectly matched layers (PML) have been found to be very efficient as a material absorbi...
The perfectly matched layer (PML) technique is extended for a cell-centered finite-volume time-domai...
In the Finite Differences in the Time Domain (FD-TD) technique the knowledge of the field is often u...
This paper presents an in-depth analysis of Berenger's perfectly matched layer (PML) boundary trunca...
Abstract—The perfectly matched layer (PML) technique is extended for a cell-centered finite-volume t...
International audiencePerfectly matched layers (PMLs) are widely used for the numerical simulation o...
It has been previously demonstrated that no reflection is generated when elastic (or electromagnetic...
A comparative analysis of two cylindrical complex-frequency-shifted perfectly matched layers (CFS-PM...
The perfectly matched layer (PML) absorbing boundary is employed in the space-time finite integratio...