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Dispersion minimization in dielectric waveguides.

作者信息

Smith L, Snitzer E

出版信息

Appl Opt. 1973 Jul 1;12(7):1592-9. doi: 10.1364/AO.12.001592.

DOI:10.1364/AO.12.001592
PMID:20125570
Abstract

The effect of dielectric dispersion on pulse transmission through singly clad, cylindrical fibers is formulated in terms of the effective group index for the waveguide. It is shown that two different solutions are possible for designing guides that give a minimum of distortion due to dispersion. One solution uses fibers with low numerical aperture made from glasses with low dispersion; here for sufficiently long wavelengths minimum distortion is possible while the guide parameters limit conduction to the lowest order mode. It is predicted, for example, that a pulse of radiation in the lowest order mode with a carrier wavelength of 1.06 micro can be conducted with minimum distortion by a fiber made from commercially available, low dispersion glass. In the other solution the fiber is designed so that the HE(11) mode provides an anomalous dispersive characteristic; this solution requires a high numerical aperture fiber with a core large enough to support the next higher order group of modes, namely the TE(01), TM(01), and HE(21) modes. For this second solution, it is shown that a dispersionless group index is possible for wavelengths at least as short as 0.77 micro.

摘要

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