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PHYSICS AND APPLICATIONS OF DEFECT STRUCTURES IN PHOTONIC CRYSTALS

机译:光子晶体中缺陷结构的物理及其应用

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摘要

We propose and demonstrate a new type of propagation mechanism for electromagnetic waves in photonic band gap materials. Photons propagate through coupled cavities due to interaction between the highly localized neighboring cavity modes. We report a novel waveguide, which we called coupled-cavity waveguide (CCW), in three-dimensional photonic structures. By using CCWs, we demonstrate lossless and reflectionless waveguide bends, efficient power splitters, and photonic switches. We also experimentally observe the splitting of eigenmodes in coupled-cavities and formation of defect band due to interaction between the cavity modes. The tight-binding (TB) approach, which is originally develop for the electronic structures, is applied to the photonic structures, and compared to the experimental results. Our achievements open a new research area, namely physics and applications of coupled-cavities, in photonic structures. We think that our results are very important for constructing future all-optical components on a single chip.
机译:我们提出并证明了一种新型的光子带隙材料中电磁波的传播机制。由于高度局部化的相邻腔模之间的相互作用,光子通过耦合腔传播。我们报告了一种新颖的波导,我们称其为三维光子结构中的耦合腔波导(CCW)。通过使用CCW,我们演示了无损和无反射波导弯曲,高效功率分配器和光子开关。我们还通过实验观察了耦合腔中本征模的分裂以及由于腔模之间的相互作用而形成的缺陷带。最初为电子结构开发的紧密结合(TB)方法应用于光子结构,并与实验结果进行了比较。我们的成就开辟了一个新的研究领域,即光子结构中的物理和耦合腔的应用。我们认为我们的结果对于在单个芯片上构建未来的全光组件非常重要。

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