基于六方氮化硼的毫米波表面声波滤波器

SeokKim Yoon, C. Baek, B. Kong
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引用次数: 1

摘要

研究表明,采用新型二维材料六方氮化硼可以显著提高表面声波滤波器的工作频率。从第一性原理分析中估计的机电性能表明,该材料具有实现毫米波射频滤波器的潜力。下面的压电仿真显示工作频率高达36ghz,对应于ka频段(26.5至40ghz),插入损耗为3db。这是通过在六方氮化硼上的150 nm周期数字间换能器实现的。利用先进的光刻技术,制造这种规模的金属光栅并不是很困难。因此,利用六方氮化硼的表面声波可以实现5G及以上的低功率射频滤波器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
mm-Wave Surface Acoustic Wave Filter based on Hexagonal Boron Nitride
We show that the operating frequency of surface acoustic wave filter can be significantly improved by adopting an emerging two-dimensional material: hexagonal boron nitride. Electromechanical properties estimated from first principles' analysis revealed that the material has the potential to realize RF filters in mm-Wave. The following piezoelectric simulation demonstrated an operation frequency as high as 36 GHz, which corresponds to Ka-band (from 26.5 to 40 GHz), with the insertion loss of 3 dB. This was achieved with the 150 nm period interdigital transducer on hexagonal boron nitride. Fabricating this scale of metal gratings is not very difficult with advanced lithography technology. As such, a low-power RF filter for 5G and beyond can be realized with the surface acoustic wave of hexagonal boron nitride.
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