DocumentCode
1493699
Title
Elementary Matrix Method for Dispersion Analysis in Optical Systems
Author
Baney, Douglas M. ; Szafraniec, Bogdan
Author_Institution
Meas. Res. Lab., Agilent Technol., Inc., Santa Clara, CA, USA
Volume
28
Issue
4
fYear
2010
Firstpage
294
Lastpage
307
Abstract
In this paper, dispersion analysis of optical components and systems is presented using a formalism based on the elementary matrices and the N-matrix, first described by Jones. This approach readily incorporates both phase and amplitude dispersion in a generalized dispersion framework. The method simplifies the analysis of the combined effects of group delay, differential group delay, amplitude slope, and differential amplitude slope as compared to traditional Jones matrix methods. Higher order polarization-mode dispersion and the effects of concatenation are presented along with a discussion of measurement principles. The application of the elementary matrix concept to Mueller matrix methods in Stokes space is also discussed.
Keywords
delays; optical communication equipment; optical elements; optical fibre communication; optical fibre dispersion; optical fibre polarisation; Jones N-matrix; Mueller matrix methods; Stokes space; amplitude dispersion; amplitude slope; concatenation effects; differential amplitude slope; differential group delay; elementary matrix method; fiber optic communications; generalized dispersion framework; group delay; higher order polarization-mode dispersion; optical components; phase dispersion; Chromatic dispersion; differential amplitude slope; optical fiber measurements; optical network analysis; polarization-mode dispersion;
fLanguage
English
Journal_Title
Lightwave Technology, Journal of
Publisher
ieee
ISSN
0733-8724
Type
jour
DOI
10.1109/JLT.2009.2033614
Filename
5280305
Link To Document