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A new approach for the design of low velocity coupling for ring shape anchored contour mode disk resonators

机译:环形锚固轮廓模式圆盘谐振器低速耦合设计的新方法

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摘要

The design of RF MEMS filters is a very important research area in the RF MEMS resonator field especially for UHF frequencies. Having very high Q and compatibility with the state-of-the-art CMOS technology, RF MEMS resonators could construct channel select filters in RF transceivers front-end and surmount the need for IF stages by direct conversion. But, there is a problem for coupling of high stiff contour mode disk resonators, because there is no nodal region at the perimeter of this kind of resonators for establishing the low velocity coupling without applying asymmetry on the resonance performance of the resonators. This paper introduces a pioneering technique for low velocity coupling of these resonators without any asymmetry. Analytical design approach and FEM analysis are provided in this paper and our discussions are verified by various simulations. The resulting filter could be designed to obtain 0.004 % of bandwidth with reasonable sizes which is completely enough for channel selection in low GSM standard.
机译:RF MEMS滤波器的设计是RF MEMS谐振器领域中非常重要的研究领域,尤其是对于UHF频率。 RF MEMS谐振器具有很高的Q值并与最新的CMOS技术兼容,因此可以在RF收发器的前端构造通道选择滤波器,并通过直接转换来满足IF级的需求。但是,由于在这种谐振器的周边没有节点区域用于建立低速耦合而不对谐振器的谐振性能施加不对称性,因此存在高刚性轮廓模式盘谐振器的耦合问题。本文介绍了一种在没有任何不对称性的情况下低速耦合这些谐振器的技术。本文提供了分析设计方法和有限元分析,并通过各种仿真验证了我们的讨论。可以将所得的滤波器设计为以合理的大小获得0.004%的带宽,这对于低GSM标准中的信道选择是完全足够的。

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  • 来源
    《Microsystem Technologies》 |2012年第12期|p.2003-2016|共14页
  • 作者单位

    Electrical Engineering Department, Sahand University of Technology, Tabriz, Iran;

    Electrical Engineering Department, Sahand University of Technology, Tabriz, Iran;

    Electrical Engineering Department, Sahand University of Technology, Tabriz, Iran;

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  • 正文语种 eng
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