一种新型可调谐水基射频MEMS电磁电感器

Fatemeh Banitorfian, F. Eshghabadi, A. A. Manaf, P. Pons, N. Noh, M. T. Mustaffa, O. Sidek
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引用次数: 9

摘要

提出了一种新型的可调谐MEMS电磁电感。该可调谐螺线管电感得益于注入液体的磁芯,该磁芯根据注入液体的水平改变磁芯的磁导率;因此,磁芯磁导率的变化引起电感的变化。在这项工作中,HFSS用于三维电磁仿真。在硅衬底上以金属铜为线圈,注入盐水(CaCl2溶于水)作为螺线管磁芯进行仿真。先前类似的可调谐MEMS电感采用铁磁磁芯和基于液体的螺旋电感不能超过2 GHz的工作频率和Q因子为12。在18ghz下,最大Q因子为18,调谐范围为60%。此外,所提出的可变电磁电感器的实现过程比其他工作更简单,更具成本效益。
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A novel tunable water-based RF MEMS solenoid inductor
This paper proposed a novel tunable MEMS solenoid inductor. This tunable solenoid inductor benefits from a liquid-injected core which varies the permeability of the core corresponding to the level of injection of the liquid; hence, the change in permeability of the core causes the change in the inductance. In this work, HFSS is used for 3D EM simulation. The proposed Solenoid inductor is simulated in Silicon substrate with Copper metal as the coil and injected salted water (CaCl2 solved in water) as the solenoid core. The similar previous works for tunable MEMS inductor employing ferromagnetic cores and liquid-based spiral inductors could not exceed an operating frequency of 2 GHz and a Q factor of 12. Here, a maximum Q factor of 18 and tuning range of 60% were achieved at 18 GHz. Also, the implementation procedure of the proposed variable solenoid inductor is simpler and more cost-effective than the other works.
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