Thin Film Enabled Engineered Substrate for Miniaturized Antennas with Improved Bandwidth

Jinqun Ge, Guoan Wang
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引用次数: 1

Abstract

This paper presents a novel engineered substrate enabled by patterned Permalloy (Ni80Fe20, Py) thin films for the development of miniaturized antenna with improved bandwidth. The perspective substrate is implemented with multiple layers of 100 nm thick Py thin film patterns embedded on arbitrary microwave substrate, and each Py layer consists of an array of Py patterns with a dimension of $15\mu\mathrm{m}\times 40\mu\mathrm{m}$ and $5\ \mu\mathrm{m}$ gaps among them to suppress the magnetic loss. An equivalent permeability of 2.398 is achieved for engineered substrate embedding with 10 layers of Py thin films. A simple patch antenna has been implemented on the engineered substrate to demonstrate the efficacy of designing miniaturized antenna with improved bandwidth, compared to antenna on regular substrate, results show that the developed antenna on engineered substrate has a size reduction of 47.3% and an improved bandwidth of 49.6%.
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用于提高带宽的小型化天线的薄膜工程基板
本文提出了一种新型的工程衬底,该衬底由图案化的坡莫合金(Ni80Fe20, Py)薄膜实现,用于开发具有改进带宽的小型化天线。透视衬底是在任意微波衬底上嵌入多层100 nm厚的Py薄膜图案来实现的,每层Py由一个尺寸为$15\mu\ mathm {m}$乘以40\mu\ mathm {m}$和$5\ \mu\ mathm {m}$间隙的Py图案阵列组成,以抑制磁损耗。在工程衬底中嵌入10层Py薄膜,其等效磁导率为2.398。为了验证小型化天线的设计效果,我们在工程基板上实现了一个简单的贴片天线,与常规基板上的天线相比,研究结果表明,在工程基板上设计的天线尺寸减小了47.3%,带宽提高了49.6%。
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