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Integral Impact of BTI, PVT Variation, and Workload on SRAM Sense Amplifier

机译:BTI,PVT变化和工作负载对SRAM感测放大器的整体影响

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The CMOS technology scaling faced over the past recent decades severe variability and reliability challenges. One of the major reliability challenges is bias temperature instability (BTI). This paper analyzes the impact of BTI on the sensing delay of standard latch-type sense amplifier (SA), which is one of the critical components of high performance memories; the analysis is done by incorporating the impact of process, voltage, and temperature variations (in order to investigate the severity of the integral impact) and by considering different workloads and four technology nodes (i.e., 45, 32, 22, and 16 nm). The results show the importance of taking the SA degradation into consideration for robust memory design; the SA degradation depends on the application and technology node, and the sensing delay can increase with 184.58% for the worst case conditions at 16 nm. The results also show that the BTI impact for nominal conditions at 16 nm reaches a 12.10% delay increment. On top of that, when extrinsic conditions are considered, the degradation can reach up to 168.45% at 398 K for 16 nm.
机译:在过去的几十年中,CMOS技术的扩展面临着严峻的可变性和可靠性挑战。可靠性的主要挑战之一是偏置温度不稳定性(BTI)。本文分析了BTI对标准锁存型读出放大器(SA)的检测延迟的影响,SA是高性能存储器的关键组成部分之一。通过合并过程,电压和温度变化的影响(以便研究整体影响的严重性)并考虑不同的工作负载和四个技术节点(即45、32、22和16 nm)来完成分析。结果表明,考虑到SA降级对于稳健的存储器设计的重要性; SA的劣化取决于应用和技术节点,在16 nm的最坏情况下,检测延迟会增加184.58%。结果还表明,BTI对标称条件在16 nm处的影响达到了12.10%的延迟增量。最重要的是,考虑到外部条件,在398 K下16 nm的降解率最高可达到168.45%。

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