DocumentCode
17277
Title
All-Silicon Technology for High-
Evanescent Mode Cavity Tunable Resonators and Filters
Author
Arif, Muhammad Shoaib ; Peroulis, Dimitrios
Author_Institution
Birck Nanotechnol. Center, Purdue Univ., West Lafayette, IN, USA
Volume
23
Issue
3
fYear
2014
fDate
Jun-14
Firstpage
727
Lastpage
739
Abstract
This paper presents a new fabrication technology and the associated design parameters for realizing compact and widely-tunable cavity filters with a high unloaded quality factor (Qu) maintained throughout the analog tuning range. This all-silicon technology has been successfully employed to demonstrate tunable resonators in mobile form factors in the C, X, Ku, and K bands with simultaneous high unloaded quality factors (≥500) and tuning ratios (≥1:2). It is shown that by employing high-precision micro-fabrication techniques and careful modeling, the measured RF and tuning performance of the fabricated device closely match the simulated results. The capability of monolithic (system-on-chip) integration, low-cost batch processing, and compatibility with CMOS processing is some of the key advantages of this 3-D tunable filter fabrication technology over conventional approaches. This technology also has the potential to be extended to produce tunable resonators and filters in the millimeter wave region.
Keywords
CMOS integrated circuits; Q-factor; cavity resonator filters; elemental semiconductors; field effect MIMIC; microfabrication; millimetre wave filters; silicon; 3D tunable filter fabrication technology; C band; CMOS processing; K bands; Ku bands; Si; X band; all-silicon technology; analog tuning range; high unloaded quality factor; high-Q evanescent mode cavity tunable resonators; high-precision microfabrication techniques; low-cost batch processing; millimeter wave region; mobile form factors; monolithic integration; system-on-chip; tuning performance; widely-tunable cavity filters; Capacitance; Cavity resonators; Electrodes; Fabrication; Resonant frequency; Silicon; Tuning; Evanescent-mode cavity; MEMS; electrostatic; high- $Q$; high-Q.; silicon; tunable filter; tunable resonator;
fLanguage
English
Journal_Title
Microelectromechanical Systems, Journal of
Publisher
ieee
ISSN
1057-7157
Type
jour
DOI
10.1109/JMEMS.2013.2281119
Filename
6605501
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