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Dispersion design of all-solid photonic bandgap fiber

机译:全固态光子带隙光纤的色散设计

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We propose a novel design for all-solid photonic bandgap fiber (AS-PBGF) by introducing defect rods with larger diameters into fiber cladding. By means of the plane-wave expansion method and the full-vector finite-element method, we study the effect of introducing such defect rods and numerically investigate dispersion characteristics of proposed AS-PBGF. Simulation results demonstrate that large wave guide group-velocity dispersion (GVD) (both normal and anomalous) is induced within bandgap rather than near the edge of bandgap as conventional photonics bandgap fiber does, which guarantees that large dispersion and low confinement loss could be simultaneously achieved. We also find that there are two essential factors affecting the slope of wave-guide GVD, which determines the third-order dispersion: number of defect rods and the ring where defect rods are introduced. (c) 2007 Optical Society of America
机译:我们通过将直径较大的缺陷棒引入光纤包层中,为全固态光子带隙光纤(AS-PBGF)提出了一种新颖的设计。通过平面波扩展法和全矢量有限元法,研究了引入这种缺陷棒的效果,并数值研究了所提出的AS-PBGF的色散特性。仿真结果表明,在带隙内而不是在带隙边缘附近会产生大的波导群速度色散(正常和异常),而不是像常规光子带隙光纤那样,这确保了大色散和低限位损失可以同时发生实现。我们还发现,影响波导GVD斜率的两个基本因素决定了三阶色散:缺陷棒的数量和引入缺陷棒的环。 (c)2007年美国眼镜学会

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