DocumentCode :
1626741
Title :
3D Channel Simulations Including Scattering from Non-Gaussian Rough Surfaces
Author :
Cocheril, Yann ; Vauzelle, Rodolphe ; Aveneau, Lilian
Author_Institution :
SIC Lab., Poitiers Univ., Poitiers
fYear :
2006
Firstpage :
1
Lastpage :
5
Abstract :
An original approach to characterize radio channel in indoor environments composed of rough surfaces is presented. It is based on algorithms developed for the image rendering field that are extended to the radio wave propagation. To simulate rough surfaces scattering, these algorithms need information about roughness. A possible solution consists of quantifying roughness by using statistical distributions of surface parameters, such as heights, slopes and local normals. In this paper, different theoretical statistical laws are presented and a fitting is realized with corresponding distributions of three real samples of wall roughcasts. For these cases, the best parameter to quantify the roughness is presented. Next, two algorithms which take roughness into account are detailed and compared with first results of channel simulations in indoor environments at 60 GHz.
Keywords :
electromagnetic wave scattering; indoor radio; millimetre wave propagation; radiowave propagation; rough surfaces; statistical distributions; wireless channels; 3D channel simulations; frequency 60 GHz; indoor environments; nonGaussian rough surfaces; radio channel; radio wave propagation; rough surfaces scattering; statistical distributions; surface parameters; theoretical statistical laws; Fresnel reflection; Indoor environments; Optical scattering; Optical surface waves; Ray tracing; Rough surfaces; Statistical distributions; Surface fitting; Surface roughness; Surface waves;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Vehicular Technology Conference, 2006. VTC-2006 Fall. 2006 IEEE 64th
Conference_Location :
Montreal, Que.
Print_ISBN :
1-4244-0062-7
Electronic_ISBN :
1-4244-0063-5
Type :
conf
DOI :
10.1109/VTCF.2006.32
Filename :
4109297
Link To Document :
بازگشت