Title :
Orthogonal
-Wall and
-Wall Tuning of Distributed Resonators: Using Concurrency for Continuous
Author :
Jooyaie, Alborz ; Chang, Mau-Chung Frank
Author_Institution :
Dept. of Electr. Eng., Univ. of California at Los Angeles (UCLA), Los Angeles, CA, USA
Abstract :
A technique to achieve ultra-wideband continuous frequency generation is introduced. It is based on orthogonal E-wall and H-wall tuning of distributed resonators, in standing-wave-mode configurations. The tuning scheme in fact serves dual purposes for generating concurrent tones, as well as wideband tuning operation. It is scalable and could be applied to any frequency band, but since it is designed around distributed resonators, it is more desirable for higher frequencies. In comparison with alternative methods, the technique requires less silicon space, lower power consumption, better phase noise, as well as a wider tuning range. A V-band voltage-controlled oscillator, with a continuous tuning range from 58 to 76.2 GHz, designed and validated in 65-nm CMOS technology, in accordance with this technique is illustrated, and a new figure of merit is reported.
Keywords :
CMOS integrated circuits; field effect MIMIC; millimetre wave generation; millimetre wave oscillators; millimetre wave resonators; phase noise; ultra wideband technology; voltage-controlled oscillators; CMOS technology; H-wall tuning scheme; V-band voltage-controlled oscillator; continuous ultrawideband frequency generation; distributed resonators; figure of merit; frequency 58 GHz to 76.2 GHz; orthogonal E-wall tuning scheme; phase noise; power consumption; size 65 nm; standing-wave-mode configurations; Resonant frequency; Switches; Tuning; Varactors; Voltage-controlled oscillators; $E$ -wall; $H$ -wall; $V$-band; Concurrent; continuous tuning; millimeter wave; multiband; voltage-controlled oscillator (VCO); wideband;
Journal_Title :
Microwave Theory and Techniques, IEEE Transactions on
DOI :
10.1109/TMTT.2012.2201747