具有嵌入式滤波和无源电压放大的物联网混合集成MEMS-IC射频前端

Giuseppe Michetti, Gabriel Giribaldi, Michele Pirro, Ankit Mittal, Tanbir Haque, Patrick Cabrol, Ravikumar V. Pragada, Hussain E. Elkotby, L. Colombo, A. Shrivastava, M. Rinaldi
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引用次数: 4

摘要

在恶劣环境中启用物联网(IoT)依赖于提高电池寿命,这可以使用具有高质量因子(Q)射频组件的唤醒接收器(WuRX)来实现。MEMS微声射频谐振器已被提出作为提供大的无源电压放大以及噪声和干扰抑制的战略组件,最终提供了减少系统级链路预算和后端电路中耗电电池数量的方法。在这项工作中,我们提出了一个高q MEMS与物联网射频前端的集成工作。首先在仿真级别讨论集成问题,然后在内部制造的FBAR谐振器和商业集成电路集成设计的WuRX上进行验证。结果是一个紧凑型物联网RF传感器,工作频率为820 MHz,具有出色的12 dB测量RF增益,7 MHz的3 dB带宽和23 dB的带外抑制。通信测试表明,数字比特流在-46 dBm射频功率下完全可恢复,错误率高于该阈值为零。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hybridly Integrated MEMS-IC RF Front-End for IoT with Embedded Filtering and Passive Voltage Amplification
Enabling Internet of Things (IoT) in harsh environments relies on improving battery life, which can be achieved using Wake-Up Receivers (WuRX) with high quality factor (Q) RF components. MEMS micro-acoustic RF resonators have been proposed as strategic components to provide large passive voltage amplification as well as noise and interference rejection, ultimately providing means to reduce system-level link budget and power-hungry cells count in the back-end circuitry. In this work, we present an integration effort of a high-Q MEMS with an IoT RF front-end. Integration issues are discussed first at simulation level, and then verified on an WuRX designed thanks to the integration of in-house fabricated FBAR resonator and commercial integrated circuits. The result is a compact IoT RF sensor operating at 820 MHz with an outstanding measured RF gain of 12 dB, a 3 dB bandwidth of 7 MHz and an out-of-band rejection of 23 dB. Communication test shows that digital bit streams are fully recoverable at –46 dBm RF power with zero error rate above that threshold.
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