DocumentCode :
562770
Title :
Designing of FinFET based 5-stage and 3-stage ring oscillator high frequency generation in 32nm
Author :
Deepak, A. Lourts ; Dhulipalla, Likhitha ; Chaitra, S.K. ; Shaik, Chand Basha
Author_Institution :
VLSI Syst. Design, M.S. Ramaiah Sch. of Adv. Studies, Bangalore, India
fYear :
2012
fDate :
30-31 March 2012
Firstpage :
222
Lastpage :
227
Abstract :
In future, as the size of channel length decrease, the necessity of low power based circuit will be increased. In nanometer regime, CMOS based circuits may not be used due to problem in its fundamental material, short channel effect and high leakage. To achieve low power device in nanometer region can be obtained by utilizing alternative technologies devices like FinFET. In most of the electronic circuits, clocks are playing a critical role to operate the device with the help of oscillatory circuit and cause the more power dissipation. In this paper, we designed the 32nm technology 5-stage and 3-stage ring oscillator to generate high frequencies like 40GHz and 60 GHz respectively with ultra low power by means of Double Gate FET which is known as FinFET and result obtained as 39 GHz and 59 GHz respectively.
Keywords :
MOSFET; low-power electronics; millimetre wave oscillators; 3-stage ring oscillator high frequency generation; 5-stage ring oscillator high frequency generation; CMOS based circuits; FinFET design; clocks; double gate FET; electronic circuits; frequency 39 GHz; frequency 59 GHz; low power based circuit; low power device; nanometer region; oscillatory circuit; power dissipation; size 32 nm; CMOS integrated circuits; Electronic circuits; FinFETs; Integrated circuit modeling; Materials; Nanoscale devices; Oscillators; Double Gate Field Effect Transistors; FinFET; Ring oscillator;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Advances in Engineering, Science and Management (ICAESM), 2012 International Conference on
Conference_Location :
Nagapattinam, Tamil Nadu
Print_ISBN :
978-1-4673-0213-5
Type :
conf
Filename :
6216003
Link To Document :
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