双交叉太赫兹平面领结天线馈电介质透镜辐射性能的浸没效应

C. Apriono, Farida Ulfah
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引用次数: 1

摘要

探测器的尺寸是获得高分辨率成像质量的首要考虑因素。太赫兹准光学可以结合半球形介质透镜的光学元件和基于天线的传感器来有效地捕获入射辐射。半球面透镜的使用有助于传感器的尺寸。本文研究了一种减小介质透镜尺寸的浸没技术,以提供太赫兹(THz)频率下天线尺寸小型化的增益和辐射效率。本次调查使用的是CST Microwave Studio模拟软件。增益和辐射效率随介质厚度的增加而减小。通过增加厚度,得到的增益仍然是30 dB,直到有匹配层时达到半球半径的一半,没有匹配层时达到半径的0.6。因此,比半球形结构更小的尺寸仍然可以提供出色的辐射性能。这些信息对于设计像太赫兹探测器那样小的探测器以获得高分辨率成像是有用的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Immersion Effect of Dielectric Lens Radiation Performances Fed with Double Crossed Terahertz Planar Bow-Tie Antenna
The size of a detector is the primary consideration to obtain a high-resolution imaging quality. A THz quasi optic can combine an optical component of a hemispherical dielectric lens and an antenna-based sensor to capture effectively incoming radiation. The use of the hemispherical lens can contribute to sensor size. This paper investigates an immersion technique for dielectric lens size reduction to provide radiation performances of gain and radiation efficiency on the purpose of antenna size miniaturization at Terahertz (THz) frequency. This investigation is using the CST Microwave Studio simulation software. Gain and radiation efficiency show a decreasing pattern as the dielectric thickness increases. The obtained gain is still 30 dB by adding thickness until half of the hemispherical radius once combined with matching layers and 0.6 of the radius once without matching layers. Therefore, a smaller size than a hemispherical structure can still provide excellent radiation performance. This information is useful to design as small as a THz detector to obtain high-resolution imaging.
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