基于自驱动通型晶体管的低功耗脉冲触发触发器设计

O. Anjaneyulu, A. Veena, C. Shravan, C. V. K. Reddy
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引用次数: 3

摘要

本文提出了一种基于自驱动通型晶体管的低功耗脉冲触发触发器设计方法。在该配置中,时钟脉冲的产生采用基于通型晶体管的双输入与门实现,减少了放电路径,提高了速度,降低了电路的复杂度。在该设计中,消除了输出驱动路径逆变器的输入,用通管逻辑代替了晶体管。由产生的时钟脉冲驱动的通管驱动触发器输出。与传统的脉冲触发触发器相比,所提出的脉冲触发触发器设计具有最佳的速度、功率和功率延迟积(PDP)性能。与传统的脉冲触发触发器设计(如D?在100 MHZ输入速率下,DCO、MHLFF、SCCER、CPE-PFF分别达到99.69%、99.43%、95.09%和84.14%。本设计采用TSPICE CMOS 180nm工艺技术生成。
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Self driven pass-transistor based low-power pulse triggered flip-flop design
In this paper, self driven pass-transistor based low-power pulse triggered flip-flop design is conferred. In this configuration, the creation of clock pulse is implemented with pass transistor based two input AND gate for reducing the discharging path and improve the speed, reduce the circuit complexity. In the proposed design input to output driving path inverter is deleted and the transistor is substituted with pass transistor logic. The pass transistor driven by generated clock pulse is utilized to drive the flip flop output. As compared to the conventional pulse triggered flip-flop, the proposed pulse triggered flip-flop design features are best speed, power and Power-Delay-Product (PDP) performance. It's maximum power saving against conventional pulse triggered flip-flop designs such as D?DCO, MHLFF, SCCER, CPE-PFF is up to 99.69%, 99.43%, 95.09% 84.14% respectively at 100 MHZ input data rate. The proposed design is generated by using TSPICE CMOS 180nm process technology.
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