Title :
Double gate FinFET master slave Flip-Flop design for low power application
Author :
Gupta, Ankur Kumar ; Akashe, Shyam
Author_Institution :
ECE Dept., ITM Univ., Gwalior, India
Abstract :
In this paper, we are presenting various analyses on master slave D Flip-Flop which is designed using FinFET. Master Slave Flip-Flop is advanced version of Flip-flops. To make Master Slave Flip-Flop Normal Flip-Flop is followed by Clocked S-R Flip-Flop. According to Moore´s law the no. of transistor in a meticulous chip area is two times in every 18 months. This announcement gives new age of VLSI meadow. If we want to increase the no. of component in chip area so we diminish the size of component. Appling this quality in chip component, the size of transistor reduced. As we scale down the device parameter after a certain rule, the short channel effects like leakage power, surface scattering, velocity saturations, takes place. Fin-FET is a superior device to eliminate or decrease above mentioned problems. We evaluate the various parameters like temperature effect to the total power, total power consumption, average DC power, calculation etc. For calculation of these results we are use cadence tools. After simulating the circuit we get values of Average DC power which is 160nW, Instantaneous Transient Power Consumption is 65.20nW, Delay is 30nS.
Keywords :
CMOS logic circuits; VLSI; flip-flops; integrated circuit design; logic design; low-power electronics; sequential circuits; Moores law; VLSI meadow; average DC power; clocked S-R flip-flop; double gate FinFET; instantaneous transient power consumption; leakage power; low power application; master slave flip-flop design; normal flip-flop; power 160 nW; power 65.20 nW; short channel effects; surface scattering; temperature effect; time 30 ns; total power consumption; velocity saturation; CMOS integrated circuits; Delays; FinFETs; Flip-flops; Leakage currents; Logic gates; Power demand; FinFET; Flip-Flop; Low power; Master Slave; Short Channel Effect; Temperature Variation;
Conference_Titel :
Power, Control and Embedded Systems (ICPCES), 2014 International Conference on
Print_ISBN :
978-1-4799-5910-5
DOI :
10.1109/ICPCES.2014.7062822