DocumentCode
2042379
Title
2 D simulation with the FDTD method of GPR modelling applied to the detection in stratified lossy medium using the frequency effect pulse
Author
Ziani, Tahar ; Laour, Mohammed ; Dérobert, Xavier ; Benslama, Malek
Author_Institution
EMP, Algiers, Algeria
fYear
2009
fDate
14-18 Sept. 2009
Firstpage
20
Lastpage
23
Abstract
In this paper we are interested in the implementation of the Yee finite-difference in time domain (FDTD) of a ground penetrating radar (GPR) model using an electromagnetic differentiated Gaussian pulse (EDGP) propagation by using the MATLAB code and taking into account the: stability criterion and the perfect matched layer (PML). The source emits an (EDGP) from a free space and hits a slab which is formed by a dispersive multilayer media. Our objective is to assess the modelling and the detection of buried objects when using the (GPR) and to see the frequency effect excitation source on the medium. It is clearly shown that with the increase of the frequency, the pulse attenuation increases too. Our code, which can be used to detect metal or plastic materials in a slab like concrete or soil (with every electrical conductivity and permittivity of each layer such as used in non destructive techniques in civilian engineering) is well commented, relatively easy to understand and can be easily modified for user´s specific purpose such as taking any kind of soil for detecting any kind of objects.
Keywords
electrical conductivity; electromagnetic pulse; finite difference time-domain analysis; ground penetrating radar; inhomogeneous media; permittivity; radar absorbing materials; 2D simulation; FDTD method; GPR modelling; MATLAB code; dispersive multilayer media; electrical conductivity; electrical permittivity; electromagnetic differentiated Gaussian pulse propagation; finite-difference in time domain; frequency effect excitation source; frequency effect pulse; ground penetrating radar; perfect matched layer; pulse attenuation; stability criterion; stratified lossy medium detection; Buried object detection; Finite difference methods; Frequency; Ground penetrating radar; Mathematical model; Object detection; Radar detection; Slabs; Soil; Time domain analysis; Finite-difference in time domain (FDTD); detection; disperrssive multilayer media; electromagnetic wave; ground penetrating radar (GPR); pulse and PML;
fLanguage
English
Publisher
ieee
Conference_Titel
Electromagnetics in Advanced Applications, 2009. ICEAA '09. International Conference on
Conference_Location
Torino
Print_ISBN
978-1-4244-3385-8
Electronic_ISBN
978-1-4244-3386-5
Type
conf
DOI
10.1109/ICEAA.2009.5297691
Filename
5297691
Link To Document