触发器电路工艺变化下定时良率提高的比较分析

H. Mostafa, M. Anis, M. Elmasry
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引用次数: 25

摘要

在同步系统中,任何对触发器时序约束的违反都可能导致整个系统故障。此外,在影响时序良率的规模化技术中,工艺变化会造成触发器延迟的巨大变化。随着时间的推移,引入了许多门尺寸算法来提高时序良率。本文分析了四种常用触发器在工艺变化下的定时良率提高。这些触发器采用意法半导体65nm CMOS技术设计。对所分析的触发器进行了功率和功率延迟产品(PDP)开销的比较,以实现时序良率的提高。分析表明,基于感测放大器的触发器(SA-FF)的功率开销和PDP开销分别为1.7倍和2.8倍,远高于传输门主从触发器(TG-MSFF)。TG-MSFF的相对功率和PDP开销最低,分别为30.87%和9%。
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Comparative Analysis of Timing Yield Improvement under Process Variations of Flip-Flops Circuits
In synchronous systems, any violation of the timing constraints of the flip-flops can cause the overall system to malfunction. Moreover, the process variations create a large variability in the flip-flop delay in scaled technologies impacting the timing yield. Overtime, many gate sizing algorithms have been introduced to improve the timing yield. This paper presents an analysis of timing yield improvement of four commonly used flip-flops under process variations. These flip-flops are designed using STMicroelectronics 65-nm CMOS technology. The analyzed flip-flops are compared for power and power-delay product (PDP) overheads to achieve this timing yield improvement. The analysis shows that the sense amplifier based flip flop (SA-FF) has a power overhead and PDP overhead of 1.7X and 2.8X, respectively, much higher than that of the transmission-gate master-slave flip flop(TG-MSFF) . The TG-MSFF exhibits the lowest relative power and PDP overheads of 30.87% and 9% ,respectively.
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