集成电荷泵的40nm, 454MHz 114 fJ/bit面积高效SRAM存储器

B. Rooseleer, W. Dehaene
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引用次数: 19

摘要

本文提出了一种256 kbit高速、超低功耗的SRAM。它以454MHz的速度运行,功率仅为29 pJ/access或114 fJ/access/bit。保持模式泄漏量仅为86 μW。将三种新技术与成熟的方法相结合,确保设计能够应对深亚微米技术带来的挑战。第一种技术是集成电荷泵,在只需要一个外部电源的情况下,可以使用低摆动信号来节省主动能源。第二个新颖之处是对读和写都使用了低摆动方案。这样可以简化局部外围,从而将面积开销降低到非常低的4%。最后,分段的水平控制线确保在长金属线上存在较大的rc延迟时正确操作。该设计采用40nm低待机功耗技术制造。测量结果证明了所提出的技术的功能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 40 nm, 454MHz 114 fJ/bit area-efficient SRAM memory with integrated charge pump
In this paper, a 256 kbit high speed, ultra-low power SRAM is presented. It runs at a speed of 454MHz with a power of only 29 pJ/access or 114 fJ/access/bit. Retention mode leakage is only 86 μW. Combining three novel techniques with proven methods assures a design which can cope with the challenges introduced by deep submicron technologies. The first technique, an integrated charge pump, enables low swing signals to be used to save active energy while only one external supply is required. A second novelty is the use of a low swing scheme for both read and write. This results in simplified local periphery which reduces area overhead to a very low 4 %. Last, segmented horizontal control lines ensure correct operation in the presence of large RC-delays on long metal lines. The design was fabricated in a 40nm low standby power technology. Measurements prove the functionality of the proposed techniques.
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