对称双栅MOSFET和对称双栅铁电场效应管设计6T-SRAM电池的比较研究

M. H. Reddy, S. Jandhyala
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引用次数: 2

摘要

为了提高内存集成密度,对sram进行了积极的扩展。在先进的技术节点上,使用对称双栅(SDG) mosfet构建的6T-SRAM单元的性能优于使用大块mosfet构建的单元。最近对称双栅铁电场效应晶体管(SDG-FeFET)引起了相当大的兴趣,因为它有可能将晶体管的亚阈值摆幅(SS)降低到经典玻尔兹曼极限以下。这是利用铁电材料的负电容特性实现的,从而降低了晶体管的功率和延迟。在本文中,我们使用SDG- fefet模拟了一个6T-SRAM电池,并对其性能与SDG mosfet作为电源电压和电池比率的函数进行了比较研究。使用sdg - fefet的6T-SRAM单元在读写访问时间和相应的静态噪声裕度(SNMs)方面都有显着改善,使其成为未来技术节点的一个有吸引力的选择。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A comparative study of 6T-SRAM cell designed using Symmetrical Double Gate MOSFET and Symmetrical Double Gate Ferroelectric FET
Scaling is aggressively performed for SRAMs to improve the memory integration density. At advanced technology nodes, 6T-SRAM cells built using Symmetrical Double Gate (SDG) MOSFETs are shown to perform better than those built with bulk MOSFETs. Recently the Symmetric Double-Gate Ferroelectric Field Effect Transistor (SDG-FeFET) has generated considerable interest since it has the potential to reduce the Subthreshold Swing (SS) of a transistor below the classical Boltzmann's limit. This was achieved exploiting the negative capacitance behavior of Ferroelectric Material which resulted in reduction of the power and delay of the transistor. In this paper, we simulate a 6T-SRAM cell using SDG-FeFETs and do the comparative study of its performance with SDG MOSFETs as a function of supply voltage and cell ratios. 6T-SRAM cell using SDG-FeFETs is shown to offer significant improvement in the read and write access times and marginal improvement in corresponding static noise margins (SNMs) as well, making it a attractive option for future technology nodes.
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