DocumentCode :
1534771
Title :
Ray tracing technique and its verification for the analysis of highly multimode optical waveguides with rough surfaces
Author :
Bierhoff, Thomas ; Wallrabenstein, Amir ; Himmler, Andreas ; Griese, Elmar ; Mrozynski, Gerd
Author_Institution :
R&D Inst., Paderborn Univ., Germany
Volume :
37
Issue :
5
fYear :
2001
fDate :
9/1/2001 12:00:00 AM
Firstpage :
3307
Lastpage :
3310
Abstract :
A novel hybrid ray tracing technique for the analysis of signal propagation in highly multimode optical waveguides with rough surfaces and its verification in part is presented. The technique combines geometrical optics with a light scattering model, based on wave optics by applying a Monte Carlo method. While the light scattering model takes mode coupling caused by surface irregularities into account, the ray tracing technique provides the analysis of light propagation in highly multimode waveguides with arbitrary shapes. The verification is obtained by calculating wave propagation within a slab waveguide with rough surfaces applying the well known coupled power theory, which provides the power of the guided modes versus the axial coordinate of the waveguide. Therefore, the ray tracing results are transformed into the discrete waveguide modes in order to compare the results
Keywords :
Monte Carlo methods; light scattering; optical waveguide theory; ray tracing; Monte Carlo method; arbitrary shapes; coupled power theory; discrete waveguide modes; geometrical optics; highly multimode optical waveguides; light scattering model; ray tracing technique; rough surfaces; signal propagation; slab waveguide; surface irregularities; wave optics; wave propagation; Geometrical optics; Light scattering; Optical propagation; Optical scattering; Optical surface waves; Optical waveguides; Ray tracing; Rough surfaces; Surface roughness; Surface waves;
fLanguage :
English
Journal_Title :
Magnetics, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9464
Type :
jour
DOI :
10.1109/20.952601
Filename :
952601
Link To Document :
بازگشت