光子带隙腔腔谐振腔阻抗匹配中晶格点的位错

N. Zhou, Terry Smith, G. Waldschmidt, A. Nassiri, T. Wong
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摘要

一种光子带隙(PBG)腔谐振器围绕着一种具有稀疏分布的金属棒阵列的超材料,有望在未来几代粒子加速器中得到应用。星形阵列由二维三角形点阵演变而来,点阵中有一些点阵点是空的。针对类TM01模式进行了优化,电场集中在中心,而高阶模式(HOMs)被限制在中心,该腔由标准矩形波导激发。输入匹配是通过在两个外层中选定的金属棒的位置进行微调来完成的。用铜制作了腔波导组件,并进行了谐振特性冷测试。在设计的11.41 GHz谐振频率下,回波损耗大于20 dB。为了确定腔腔腔腔沿轴方向的场均匀性,进行了磁珠拉实验。
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Dislocation of Lattice Points for Impedance Matching of a Photonic Bandgap Cavity Resonator
A photonic bandgap (PBG) cavity resonator encompassing a metamaterial with a sparsely populated array of metallic rods has been arrived at for potential application in future generations of particle accelerators. The star-shape array was evolved from a two-dimensional triangle lattice with certain lattice points vacant. Optimized for the TM01 – like mode with the electric field concentrated at the center while the higher-order modes (HOMs) are constrained from the center, the cavity is excited by a standard rectangular waveguide. Input matching is accomplished by fine tuning in the positions of selected metal rods in the two outer layers. The cavity-waveguide assembly was fabricated with copper and cold tested for resonance characteristics. A return loss of over 20 dB at the designed resonance frequency of 11.41 GHz was measured. A bead pull experiment was performed to confirm the uniformity of the field along the axis of the cavity resonator.
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