使用低成本3d打印半球透镜天线的太赫兹自由空间测量系统

N. Chudpooti, Nattapong Duangrit, P. Akkaraekthalin, I. Robertson, N. Somjit
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引用次数: 0

摘要

本文提出了一种使用WR-3矩形波导直接馈电的基于光聚合物的添加剂制造半球透镜天线的太赫兹自由空间(THz)测量技术,其工作频率范围为220 GHz至320 GHz。半球面透镜天线是通过内部定制的低成本光聚合物3D打印制造的,使用数字光处理(DLP)技术,使用Monocure 3DR3582C打印材料逐层制造。利用渐近单模全介质布拉格光纤,研究了所研制的自由空间测量装置的性能。从测量结果来看,与解析计算和传统自由空间测量装置相比,本文计算的传播损耗精度分别为83.36%和88.08%。此外,使用3d打印的半球面透镜天线进行太赫兹自由空间测量降低了测量设置的复杂性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Terahertz Free-Space Measurement System Using Low-Cost 3D-Printed Hemispherical Lens Antenna
This paper presents a terahertz free-space (THz) measurement technique using a photopolymer-based additive manufactured hemispherical lens antenna directly fed by a WR-3 rectangular waveguide with an operating frequency range of 220 GHz to 320 GHz. The hemispherical lens antenna is fabricated by in-house custom-made low-cost photopolymer 3D printing using a digital light processing (DLP) technique to fabricate layer-by-layer using Monocure 3DR3582C printing material. An asymptotically single-mode all-dielectric Bragg fiber is used to investigate the performance of the developed free-space measurement setup. From the measurement results, the propagation loss in this work has an accuracy compared with an analytical calculation and conventional free-space measurement setup of 83.36% and 88.08%, respectively. Moreover, the use of a 3D-printed hemispherical lens antenna for the THz free-space measurement reduces the complexity of the measurement setup.
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