A New Type 3D Printing Microwave Resonant Cavity for Materials Moisture Sensing

Wei Cheng, Jwo-Shiun Sun, Guan-Yu Chen, Chi-Fan Liao, Kelvin Cheng, Chu-Hsien Cheng
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Abstract

Regardless of agriculture, forestry, mining, animal husbandry, a high-precision, discerning material moisture content sensing system has a wide range of needs. With reference to the microwave detection technology for dielectric coefficient and moisture content of material, we designed a front-end microwave resonant cavity for measuring the moisture content of the material is realized by 3D printing technology, and its function is successfully measured. This article first analyzes the coaxial cavity TEM mode resonance conditions and the calculation method of quality factors. The electromagnetic simulation software (High Frequency Structure Simulator; HFSS) is used for simulation, and the adjustment of the relationship between the size of the resonant cavity and the frequency deviation and the theory of dielectric perturbation are explained. The simulated coaxial resonant cavity is realized by 3D printing technology, and it is loaded with soil with different moisture content to construct a relationship between moisture content and frequency deviation.
一种用于材料水分传感的新型3D打印微波谐振腔
无论农业、林业、矿业、畜牧业,一个高精度、分辨力强的物料水分含量传感系统都有着广泛的需求。参考材料介电系数和含水率的微波检测技术,设计了用于测量材料含水率的前端微波谐振腔,通过3D打印技术实现,并对其功能进行了成功测量。本文首先分析了同轴腔TEM模共振条件和质量因子的计算方法。电磁仿真软件(高频结构模拟器;采用HFSS进行了仿真,说明了谐振腔尺寸与频率偏差关系的调整和介电微扰理论。采用3D打印技术实现模拟同轴谐振腔,加载不同含水率的土壤,构建含水率与频率偏差之间的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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