New radio-frequency resonators based on periodically poled lithium niobate thin film and ridge structures

F. Bassignot, G. Haye, F. Henrot, L. Gauthier-Manuel, B. Guichardaz, H. Maillotte, S. Ballandras, E. Courjon, J. Lesage
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引用次数: 2

Abstract

In this paper, we present new results on the development of an original acoustic waveguides concept based on a Periodically Poled Lithium Niobate transducer. Periodically poled transducers have been investigated recently as an alternative to classical inter-digital transducers for the excitation and detection of guided acoustic waves. We expose here two different structures of RF resonators based on this concept: a “Silicon/Gold layer/PPLN thin film/Gold layer/Silicon” stack and a PPLN-ridge structure. Simulations, fabrication and experimental results of both resonators are presented. “Si/10 μm-thick PPLN/Si” and “PPLN-ridge (11 μm-wide and 250 μm-deep)” resonators with a poling period of 50 μm have been achieved. The experimental admittances of these devices have pointed out the existence of an isolated mode operating at frequencies near 110 MHz for the stack structure and near 160 MHz with an electromechanical coupling of about 19 % for the ridge structure. These results are in agreement with the finite and boundary elements simulations.
基于周期性极化铌酸锂薄膜和脊结构的新型射频谐振器
在本文中,我们提出了基于周期性极化铌酸锂换能器的原始声波导概念发展的新结果。周期性极化换能器作为传统数字间换能器的一种替代方法,最近被研究用于引导声波的激发和探测。我们在此展示了基于该概念的两种不同结构的射频谐振器:“硅/金层/PPLN薄膜/金层/硅”堆叠和PPLN脊结构。给出了两种谐振器的仿真、制作和实验结果。实现了“Si/10 μm厚PPLN/Si”和“PPLN脊(11 μm宽,250 μm深)”谐振腔,极化周期为50 μm。这些器件的实验导纳指出,存在一种隔离模式,工作频率在110 MHz附近的堆叠结构和160 MHz附近的脊结构,机电耦合约为19%。这些结果与有限元和边界元模拟结果一致。
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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