Paper
17 November 2010 A novel structure photonic crystal fiber based on bismuth-oxide for optical parametric amplification
Cang Jin, Jinhui Yuan, Chongxiu Yu
Author Affiliations +
Abstract
The heavy metal oxide glasses containing bismuth such as bismuth sesquioxide show unique high refractive index. In addition, the bismuth-oxide based glass does not include toxic elements such as Pb, As, Se, Te, and exhibits well chemical, mechanical and thermal stability. Hence, it is used to fabricate high nonlinear fiber for nonlinear optical application. Although the bismuth-oxide based high nonlinear fiber can be fusion-spliced to conventional silica fibers and have above advantages, yet it suffers from large group velocity dispersion because of material chromatic dispersion which restricts its utility. In regard to this, the micro-structure was introduced to adjust the dispersion of bismuth-oxide high nonlinear fiber in the 1550nm wave-band. In this paper, a hexagonal solid-core micro-structure is developed to balance its dispersion and nonlinearity. Our simulation and calculation results show that the bismuth-oxide based photonic crystal fiber has near zero dispersion around 1550nm where the optical parametric amplification suitable wavelength is. Its dispersion slop in the communication wavelength range is also relatively flat. Moreover, both nonlinear coefficient and model filed distribution were simulated, respectively.
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Cang Jin, Jinhui Yuan, and Chongxiu Yu "A novel structure photonic crystal fiber based on bismuth-oxide for optical parametric amplification", Proc. SPIE 7848, Holography, Diffractive Optics, and Applications IV, 78482K (17 November 2010); https://doi.org/10.1117/12.870284
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KEYWORDS
Dispersion

Glasses

Refractive index

Bismuth

Nonlinear optics

Photonic crystal fibers

Lead

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