DocumentCode
1069155
Title
Symmetrized Split-Step Fourier Scheme to Control Global Simulation Accuracy in Fiber-Optic Communication Systems
Author
Zhang, Qun ; Hayee, M. Imran
Author_Institution
Minnesota State Univ., Mankato
Volume
26
Issue
2
fYear
2008
Firstpage
302
Lastpage
316
Abstract
Analytical expressions involving both system parameters and step-size are proposed to represent the local simulation error for the symmetrized split-step Fourier (SSSF) simulation method. This analytical expression can be used for a step-size selection rule to achieve comparable local simulation accuracy for SSSF simulations. This can lead to computational savings since there is no waste of computation in each simulation step. Furthermore, based on the local error expression, scaling rules are derived to achieve comparable global simulation accuracy for wide ranges of key system parameter values. This is significant in enhancing the computational efficiency in optical fiber communication system design and optimization. Extensive validation tests were performed to explore the application range of the proposed step-size selection and scaling rules. The desired global accuracy can be achieved with the use of our local error expression and scaling rules by only a couple of test trial simulation runs for a variety of practical applications.
Keywords
Fourier transform optics; optical design techniques; optical fibre communication; optimisation; design; fiber-optic communication systems; global simulation accuracy; optimization; scaling rules; step-size selection; symmetrized split-step Fourier scheme; Analytical models; Communication system control; Computational efficiency; Computational modeling; Design optimization; Nonlinear equations; Optical attenuators; Optical fiber communication; Optical solitons; Testing; Fiber optics; nonlinear SchrÖdinger equation (NLSE); split-step Fourier (SSF) method; step-size; system design and optimization;
fLanguage
English
Journal_Title
Lightwave Technology, Journal of
Publisher
ieee
ISSN
0733-8724
Type
jour
DOI
10.1109/JLT.2007.909861
Filename
4451240
Link To Document