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Enhancing the Performance of the Microwave Absorbing Materials by Using Dielectric Resonator Arrays

机译:通过使用介质谐振器阵列提高微波吸收材料的性能

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摘要

We present a technique for enhancing the performance of microwave absorbing materials in terms of weight, thickness, and bandwidth. The introduced technique is based on fabricating the microwave absorbing (MA) material in a structure comprised of an array of circular cylinder dielectric resonators (CDR) backed by a perfect electric conductor (PEC) ground plane. Numerical electromagnetic methods are employed to study the properties of the proposed MA array structures, where 3D full wave simulation using finite-element method is implemented. The obtained results show that the performance of the MA-CDR arrays significantly outperforms that of a flat layer composed of the same material and having equivalent thickness. A flat layer of MA material with thickness of 5 mm backed by perfect electric conductor (PEC) shows as low as -50 dB reflection loss (RL) peak and ~3 GHz 10-dB bandwidth, whereas an MA-CDR array, composed of the same MA material, of height of 4 mm can achieve as low as ~-50 dB RL peak and ~12 GHz 10-dB RL bandwidth.
机译:我们提出了一种在重量,厚度和带宽方面增强微波吸收材料性能的技术。引入的技术基于在结构上制造微波吸收(MA)材料的结构,该结构由圆柱电介质谐振器(CDR)阵列组成,并由完美的电导体(PEC)接地层支撑。数值电磁方法被用来研究所提出的MA阵列结构的特性,其中使用有限元方法实现了3D全波仿真。所获得的结果表明,MA-CDR阵列的性能明显优于由相同材料组成并且具有相等厚度的平坦层的性能。由完美电导体(PEC)支撑的厚度为5 mm的MA材料的平坦层显示出低至-50 dB的反射损耗(RL)峰值和〜3 GHz 10-dB带宽,而MA-CDR阵列则由相同的MA材料(高度为4 mm)可以实现低至〜-50 dB RL峰值和〜12 GHz 10-dB RL带宽。

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  • 来源
    《Modelling and simulation in engineering》 |2017年第2017期|3658247.1-3658247.8|共8页
  • 作者单位

    Department of Renewable Energy Engineering AL-Albayt University, Mafraq, Jordan,University of Arkansas, Fayetteville, AR 72701, USA;

    University of Arkansas, Fayetteville, AR 72701, USA;

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