Derives a closed-form GN-model formula without restrictive assumptions for arbitrary WDM combs and link structures, accurate versus numerical integration for both high- and low-dispersion fibers.
A generalized GN-model closed-form formula
2 Pith papers cite this work. Polarity classification is still indexing.
2
Pith papers citing it
abstract
The GN-model of fiber non-linearity has had quite substantial success in modern optical telecommunications networks as a design and management tool. A version of it, capable of handling arbitrary WDM combs and link structures in closed form, was proposed in 2014. Here we upgrade that formula, to make it capable of handling frequency-dependent dispersion, frequency-dependent loss and frequency-dependent gain/loss due to Stimulated Raman Scattering (SRS) among channels. This way, more challenging and complex network scenarios, like the ones that are being deployed right now, can be dealt with in real-time, to the great advantage of management, control and optimization of such networks.
verdicts
UNVERDICTED 2representative citing papers
Exact cylindrically symmetric black-hole and black-string solutions sourced by the Dekel-Zhao DM profile exhibit horizon disappearance above a critical inner slope and curvature singularities absent in the vacuum case.
citing papers explorer
-
A GN-model closed-form formula considering coherency terms in the Link function and covering all possible islands in 2-D GN integration
Derives a closed-form GN-model formula without restrictive assumptions for arbitrary WDM combs and link structures, accurate versus numerical integration for both high- and low-dispersion fibers.
-
Cylindrically Symmetric Black Holes Sourced by Dekel-Zhao Dark Matter
Exact cylindrically symmetric black-hole and black-string solutions sourced by the Dekel-Zhao DM profile exhibit horizon disappearance above a critical inner slope and curvature singularities absent in the vacuum case.