叠层设计的8晶体管SRAM单元具有更强的数据稳定性,增强了写入能力并抑制了泄漏功耗

S. Salahuddin, V. Kursun
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引用次数: 1

摘要

静态随机存取存储器(SRAM)单元的数据稳定性下降,写入能力下降,泄漏功耗增加,已成为CMOS技术扩展到22nm以下通道长度的主要设计问题。本文提出了一种新型栅极下盖设计的八晶体管SRAM单元,该单元在FinFET存储电路中具有更强的数据稳定性、更强的写入能力和更低的泄漏功耗。所提出的SRAM单元的交叉耦合逆变器中的上拉和下拉晶体管的栅极下接长度被拉长和调整,以便在FinFET存储电路中提供优越的电气特性。与15nm FinFET技术中传统的8 -FinFET SRAM单元相比,采用栅极下迭设计的8 -FinFET SRAM单元,读取静态噪声裕度提高了71.1%,写入电压裕度提高了29.7%,泄漏功耗降低了91.8%,同时保持了相似的布局面积。
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Underlap engineered eight-transistor SRAM cell for stronger data stability enhanced write ability and suppressed leakage power consumption
The degraded data stability, write ability, and increased leakage power consumption of static random-access memory (SRAM) cells have become primary design concerns with CMOS technology scaling into the sub-22nm channel lengths. A new gate-underlap-engineered eight-transistor SRAM cell is proposed in this paper for stronger data stability, enhanced write ability, and suppressed leakage power consumption in FinFET memory circuits. Gate-underlap lengths of the pull-up and pull-down transistors in cross-coupled inverters of the proposed SRAM cell are elongated and tuned for providing superior electrical characteristics in FinFET memory circuits. With the proposed gate-underlap engineered eight-FinFET SRAM cell, the read static noise margin is enhanced by up to 71.1%, the write voltage margin is increased by up to 29.7%, and the leakage power consumption is reduced by up to 91.8% while maintaining similar layout area as compared to the conventional eight-FinFET SRAM cells in a 15nm FinFET technology.
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