1) total internal reflection photonic crystal fiber
全反射导光型光子晶体光纤
1.
The fundamental mode losses characteristics of total internal reflection photonic crystal fibers(PCF) are simulated numerically by the multipole method.
应用多极法对全反射导光型光子晶体光纤的基模损耗进行了数值模拟,研究了结构参量如空气孔直径、孔距和包层空气孔层数等在1。
2) total internal reflective photonic crystal fiber
全内反射光子晶体光纤
1.
From the nonlinear Schrdinger equation,the quasi-nonlinear Schrdinger equation of the soliton pulse propagation with slowly decreasing dispersion management soliton in the total internal reflective photonic crystal fibers under Compton scattering has been worked out.
从非线性薛定谔方程出发,导出了Compton散射下全内反射光子晶体光纤中色散缓变管理孤子脉冲传输的准非线性薛定谔方程。
2.
By using the multi-photon nonlinear Compton scattering conception and the model of the non- linear scattering between an electron and a photon,the propagation equations of the laser amplification of the coupling chirped-pulse in the total internal reflective photonic crystal fiber are built.
应用多光子非线性Compton散射概念和电子与多光子集团非线性散射模型,建立了全内反射光子晶体光纤中耦合啁啾脉冲激光的输运方程,理论分析和数值模拟了该过程中Compton散射对自相位调制的影响。
3.
A model on the concentrated slowly decreasing dispersion-management soliton and the propagation equation of the nonlinear Schr?ding of the soliton in the total internal reflective photonic crystal fiber under the multi-photon nonlinear Compton are given out.
提出了密集色散缓变管理孤子模型,给出了多光子非线性康普顿散射下全内反射光子晶体光纤中孤子传输的非线性薛定谔方程,通过分步傅立叶变换求解该方程发现:在一定条件下,孤子对在该系统中演变为准孤子对,幅值和宽度发生缓慢的周期性变化,没有出现通常情况下的周期性离合现象。
3) total internal reflection photonic fiber
全反射光子晶体光纤(TIRPCF)
4) total-internal reflection PCF
全内反射型光子晶体光纤
5) C_(6v) total internal reflection photonic crystal fibers
六重对称全内反射型光子晶体光纤
6) index-guiding PCF
折射率引导型光子晶体光纤
1.
The loss of index-guiding PCF was 240 dB/km in 1999, with the development of fabrication technology, the loss has been reduced rapidly.
折射率引导型光子晶体光纤的损耗由1999年的240dB/km降至0。
补充资料：光子晶体光纤
光子晶体光纤又被称为微结构光纤，近年来引起广泛关注，它的横截面上有较复杂的折射率分布，通常含有不同排列形式的气孔，这些气孔的尺度与光波波长大致在同一量级且贯穿器件的整个长度，光波可以被限制在光纤芯区传播。光子晶体光纤有很多奇特的性质。例如，可以在很宽的带宽范围内只支持一个模式传输；包层区气孔的排列方式能够极大地影响模式性质；排列不对称的气孔也可以产生很大的双折射效应，这为我们设计高性能的偏振器件提供了可能。
说明：补充资料仅用于学习参考，请勿用于其它任何用途。
参考词条