最大信息存储系统:概念、实现与应用

Xin Li
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引用次数: 5

摘要

侵略性的技术缩放使得设计高性能、高密度的SRAM电路变得越来越困难。在本文中,我们提出一种新的SRAM设计方法,称为最大信息存储系统(MISS)。与大多数为最大单元密度而设计的传统SRAM电路不同,MISS旨在最大限度地提高信息密度(即每单位面积的信息位数)。为了实现这一目标,导出了一个信息模型来定量地测量存储在给定SRAM系统中的信息位。此外,还开发了一个凸优化框架来优化SRAM单元,以实现最大的信息存储。我们在商用65nm CMOS工艺中的设计示例表明,MISS比传统的SRAM设计减少了3.5倍以上的面积,同时存储了相同数量的信息。此外,两个实际的信号处理实例表明,在相同的面积约束下,与传统的SRAM系统相比,MISS可以将信噪比提高30 dB以上。
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Maximum-information storage system: Concept, implementation and application
The aggressive technology scaling has made it increasingly difficult to design high-performance, high-density SRAM circuits. In this paper, we propose a new SRAM design methodology that is referred to as maximum-information storage system (MISS). Unlike most traditional SRAM circuits that are designed for maximum cell density, MISS aims to maximize the information density (i.e., the number of information bits per unit area). Towards this goal, an information model is derived to quantitatively measure the information bits stored in a given SRAM system. In addition, a convex optimization framework is developed to optimize SRAM cells to achieve maximum information storage. Our design example in a commercial 65nm CMOS process demonstrates that MISS achieves more than 3.5× area reduction over the traditional SRAM design, while storing the same amount of information. Furthermore, two real-life signal processing examples show that given the same area constraint, MISS can increase signal-to-noise ratio by more than 30 dB compared to the traditional SRAM system.
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