Title :
Multi-technology design of an integrated MEMS-based RF oscillator using a novel silicon-ceramic compound substrate
Author :
Podoskin, D. ; Bruckner, K. ; Fischer, M. ; Gropp, S. ; Krausse, D. ; Nowak, J. ; Hoffmann, M. ; Muller, J. ; Sommer, R. ; Hein, M.A.
Author_Institution :
Inst. of Micro- & Nanotechnol. IMN MacroNano®, Tech. Univ. Ilmenau, Ilmenau, Germany
Abstract :
In this paper, an approach towards the realization of a hybrid MEMS-CMOS RF oscillator module using the novel silicon-ceramic (SiCer) compound substrate technology is described. Piezoelectric aluminium-nitride MEMS resonators with quality factors Q up to 2,200 and resonant frequencies of 240, 400 and 600 MHz have been investigated as frequency-selective elements. For RF-compatible hybrid-integrated assembly and packaging, the SiCer compound substrate has been adapted, promising an efficient integration of both, microelectronic and micromechanical devices, on a single carrier substrate. Multiphysical circuit design and simulations using parametrized behavioural MEMS models have been carried out, indicating stable oscillator operation at the design frequency. As one prospective application, such an oscillator module could form part of a compact and power-efficient reconfigurable RF transceiver frontend in SiCer technology, e.g., for mobile communications.
Keywords :
CMOS integrated circuits; aluminium compounds; crystal resonators; elemental semiconductors; micromechanical resonators; radiofrequency integrated circuits; radiofrequency oscillators; silicon; silicon-on-insulator; substrates; AlN; RF-compatible hybrid-integrated assembly packaging; Si; SiCer compound substrate; frequency 240 MHz; frequency 400 MHz; frequency 600 MHz; frequency-selective elements; hybrid MEMS-CMOS RF oscillator; integrated MEMS-based RF oscillator; microelectronic devices; micromechanical device; mobile communications; multiphysical circuit simulations; multitechnology design; piezoelectric aluminium-nitride MEMS resonators; power-efficient reconfigurable RF transceiver; silicon-ceramic compound substrate; single carrier substrate; Ceramics; Integrated circuit modeling; Micromechanical devices; Oscillators; Radio frequency; Resonant frequency; Substrates; CMOS; Piezoelectric MEMS resonator; RF oscillator; SiCer substrate;
Conference_Titel :
Microwave Conference (GeMiC), 2015 German
Conference_Location :
Nuremberg
DOI :
10.1109/GEMIC.2015.7107839