一种使用低电源电压增强时序的d型触发器

Osama Bondoq, K. Abugharbieh, Abdullah Hasan
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引用次数: 2

摘要

本文提出了一种新型的主从锁存d型触发器。它包括一个复位设置从锁存器和一个非对称单数据输入主锁存器。通过减少级数和去除主锁存器中的信号调理电路,设置时间大大减少,功耗得到改善。除了传统的传输门触发器(TGFF)外,所提出的触发器在性能、功耗和面积方面与其他最先进的低功耗触发器(TGFF)具有竞争力。在仿真中,与低功耗触发器拓扑压缩触发器(TCFF)相比,该触发器的设置时间提高了71.5%,D-Q延迟时间提高了36.5%,数据活动减少了56.5%,功率延迟积(PDP)减少了10%。此外,与TGFF相比,它的电路面积减少了11%。这项工作包括所提出的触发器的电路原理图,布局设计和使用Hspice工具在28nm CMOS技术和1V电源电压下在1ghz时钟(CLK)进行仿真。
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A D-Type Flip-Flop with Enhanced Timing Using Low Supply Voltage
This work proposes a novel master-slave latch D-type Flip-Flop. It consists of a reset-set slave latch and an asymmetrical single data input master latch. By reducing the number of stages and removing signal conditioning circuitry in the master latch, setup time has been significantly reduced and power consumption has improved. The proposed flip-flop is competitive to other state of the art low power flip-flops in addition to the conventional Transmission Gate Flip-flop (TGFF) in terms of performance, power consumption and area. In simulations, the proposed flip-flop has achieved up to 71.5% improvement in setup time, 36.5% improvement in D-Q delay time and up to 56.5% less power delay product (PDP) with 10% data activity compared to Topologically Compressed Flip-Flop (TCFF), which is a low power flip-flop. Further, it has achieved 11% smaller circuit area compared with TGFF. This work includes the proposed flip-flop's circuit schematic, layout design and simulations using Hspice tool with 28nm CMOS technology and a 1V supply voltage at 1 GHz clock (CLK).
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