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Proceedings Paper

Techniques for detecting densely wavelength-multiplexed solitons
Author(s): R. Brian Jenkins; Jon R. Sauer; Christian V. Radehaus; Alan F. Benner; Mark J. Ablowitz; Gregory Beylkin
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Paper Abstract

Long distance data transmission using solitons multiplexed on different wavelengths makes more efficient use of fiber bandwidth than transmission on a single wavelength channel. However, perturbations and nonlinear distortions limit the number of wavelengths which can be multiplexed and detected at the end of the fiber. Perturbations, such as loss, cause permanent frequency shifts if a collision occurs between solitons widely separated in frequency. Densely packing the solitons spectrally, though, results in distortions in spectral intensity which limit the use of standard wavelength demultiplexing techniques. We examine methods by which solitons, densely multiplexed in wavelength, may still be detected even during collisions. The theoretical feasibility of encoding the data on the eigenvalues of the linear evolution equations associated with soliton propagation by the inverse scattering transform is discussed, as are more practical techniques using only the spectral intensity of the waveform.

Paper Details

Date Published: 1 November 1993
PDF: 12 pages
Proc. SPIE 2024, Multigigabit Fiber Communication Systems, (1 November 1993); doi: 10.1117/12.161330
Show Author Affiliations
R. Brian Jenkins, Univ. of Colorado/Boulder (United States)
Jon R. Sauer, Univ. of Colorado/Boulder (United States)
Christian V. Radehaus, Univ. of Colorado/Boulder (United States)
Alan F. Benner, IBM Corp. (United States)
Mark J. Ablowitz, Univ. of Colorado/Boulder (United States)
Gregory Beylkin, Univ. of Colorado/Boulder (United States)


Published in SPIE Proceedings Vol. 2024:
Multigigabit Fiber Communication Systems
Leonid G. Kazovsky; Karen Liu, Editor(s)

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