In this paper, simple circuital techniques to design efficient pulse triggered flip-flops are presented.The proposed approach aims at considerably alleviating the detrimental effects of current contentionmechanisms, occurring at critical switching nodes of the circuits. In this way, both latency andpower consumption of pulse triggered flip-flops are reduced. The proposed approach is assessed bymeans of simulations in 90-nm ST commercial CMOS technology. When applied to some recentlyproposed implicit pulse triggered flip-flop architectures, the suggested design strategy, allows speedto be improved up to 13% and power-delay-product to be lowered down to 14%. Moreover, also theprocess variation tolerance is considerably improved.
A Simple Circuit Approach to Improve Speed and Power Consumption in Pulse-Triggered Flip-Flops
LANUZZA, Marco
2013-01-01
Abstract
In this paper, simple circuital techniques to design efficient pulse triggered flip-flops are presented.The proposed approach aims at considerably alleviating the detrimental effects of current contentionmechanisms, occurring at critical switching nodes of the circuits. In this way, both latency andpower consumption of pulse triggered flip-flops are reduced. The proposed approach is assessed bymeans of simulations in 90-nm ST commercial CMOS technology. When applied to some recentlyproposed implicit pulse triggered flip-flop architectures, the suggested design strategy, allows speedto be improved up to 13% and power-delay-product to be lowered down to 14%. Moreover, also theprocess variation tolerance is considerably improved.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.