Ultra-Low-Voltage IC Design Methods

D. Arbet, L. Nagy, V. Stopjaková
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引用次数: 1

Abstract

The emerging nanoscale technologies inherently offer transistors working with low voltage levels and are optimized for low-power operation. However, these technologies lack quality electronic components vital for reliable analog and/or mixed-signal design (e.g., resistor, capacitor, etc.) as they are predominantly used in high-performance digital designs. Moreover, the voltage headroom, ESD properties, the maximum current densities, parasitic effects, process fluctuations, aging effects, and many other parameters are superior in verified-by-time CMOS processes using planar transistors. This is the main reason, why low-voltage, low-power high-performance analog and mixed-signal circuits are still being designed in mature process nodes. In the proposed chapter, we bring an overview of main challenges and design techniques effectively applicable for ultra-low-voltage and low-power analog integrated circuits in nanoscale technologies. New design challenges and limitations linked with a low value of the supply voltage, the process fluctuation, device mismatch, and other effects are discussed. In the later part of the chapter, conventional and unconventional design techniques (bulk-driven approach, floating-gate, dynamic threshold, etc.) to design analog integrated circuits towards ultra-low-voltage systems and applications are described. Examples of ultra-low-voltage analog ICs blocks (an operational amplifier, a voltage comparator, a charge pump, etc.) designed in a standard CMOS technology using the unconventional design approach are presented.
超低电压集成电路设计方法
新兴的纳米技术本身就提供了低电压水平的晶体管,并针对低功耗操作进行了优化。然而,这些技术缺乏可靠的模拟和/或混合信号设计(例如,电阻,电容器等)所必需的高质量电子元件,因为它们主要用于高性能数字设计。此外,电压余量、ESD特性、最大电流密度、寄生效应、工艺波动、老化效应等参数在采用平面晶体管的时间验证型CMOS工艺中具有优势。这就是为什么低压、低功耗的高性能模拟和混合信号电路仍在成熟的工艺节点上设计的主要原因。在这一章中,我们概述了超低电压和低功耗模拟集成电路在纳米级技术中的主要挑战和设计技术。新的设计挑战和限制与低值供电电压,工艺波动,器件失配,和其他影响进行了讨论。在本章的后半部分,描述了针对超低电压系统和应用设计模拟集成电路的传统和非常规设计技术(体积驱动方法,浮门,动态阈值等)。超低电压模拟集成电路模块(运算放大器、电压比较器、电荷泵等)采用标准CMOS技术设计,采用非常规设计方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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