Surface Wave and Lamb Wave Acoustic Devices on Heterogenous Substrate for 5G Front-Ends

Hongyan Zhou, Shibin Zhang, Zhongxu Li, Kai Huang, Pengcheng Zheng, Jinbo Wu, Chen Shen, Liping Zhang, T. You, Lianghui Zhang, Kang Liu, Huarui Sun, Hongtao Xu, Xiaomeng Zhao, X. Ou
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引用次数: 22

Abstract

We demonstrate groups of surface wave (SH0 mode) and Lamb wave (S0 mode) acoustic devices on lithium niobate thin films on silicon carbide (LNOSiC) heterogeneous substrate. The 4-inch LNOSiC with an excellent thermal transport property is prepared by ion-cutting process. The fabricated acoustic resonators on the LNOSiC substrate show scalable resonances from 2.0 to 4.72 GHz, in which the SH0 (S0) mode resonator shows a $k_t^2$ of 24.1% (15.5%) and a maximum Bode-Q of 976 (577) at 2.54 (3.56) GHz. Moreover, the phase velocity (Vp) of the SH0 (S0) mode is greater than 5000 (6400) m/s, which is about 1.25 (1.6) times higher than that of the conventional SAWs, so as the operating frequency. The filter with a center frequency of 2.62 GHz, an insertion loss (IL) of 1.06 dB, and a 3-dB fractional bandwidth (FBW) of 12.6% (three times larger than that of the conventional SAWs) is also achieved. The acoustic devices on heterogeneous substrate are very promising for high frequency, wideband and high power 5G front-ends.
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5G前端异质基板表面波和兰姆波声学器件
我们在碳化硅(LNOSiC)非均质衬底上的铌酸锂薄膜上展示了表面波(SH0模式)和兰姆波(S0模式)声学器件群。采用离子切割工艺制备了具有优异热输运性能的4英寸LNOSiC材料。在LNOSiC衬底上制备的声学谐振器在2.0 ~ 4.72 GHz范围内具有可扩展性,其中SH0 (S0)模式谐振器在2.54 (3.56)GHz处的$k_t^2$为24.1%(15.5%),最大Bode-Q为976(577)。SH0 (S0)模式的相速度(Vp)大于5000 (6400)m/s,是常规saw的1.25(1.6)倍,工作频率也随之提高。该滤波器的中心频率为2.62 GHz,插入损耗(IL)为1.06 dB, 3db分数带宽(FBW)为12.6%(是传统saw的3倍)。异质基板上的声学器件在高频、宽带、大功率5G前端中具有广阔的应用前景。
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