Digital Calibration of Low-Voltage and Low-Power Analog ICs

Michal Sovcík, V. Stopjaková, D. Arbet, M. Kovác
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引用次数: 2

Abstract

In this paper, a digital calibration method for analog integrated circuits in nanotechnologies is proposed. Calibration was applied to a variable-gain amplifier (VGA), and it was aimed at the input offset voltage. The first part of the paper brings motivation for our research. Consequently, fundamentals of the proposed method and its implementation in 130 nm CMOS technology node are explained. The whole system operates with the supply voltage of 0.6 V. Then, verification results obtained mainly by simulations and partly obtained by the measurement of prototype chips. In all simulations, Monte Carlo analysis was used in the temperature range from −20°C to 60°C. With the use of calibration, the input offset voltage distribution mean value ranges between $299\mu V$to $413\mu V$, and standard deviation ranges between $356\mu V$ - to $802\mu V$. The measurement results of the VGA without calibration shows, that input offset voltage distribution over 60 samples reaches mean value of $403\mu V$ and standard deviation of 3.45 mV.
低电压和低功耗模拟ic的数字校准
本文提出了一种纳米技术中模拟集成电路的数字校准方法。针对可变增益放大器(VGA)的输入偏置电压进行了校准。论文的第一部分为我们的研究提供了动力。因此,本文解释了该方法的基本原理及其在130 nm CMOS技术节点上的实现。整个系统在0.6 V的电源电压下工作。然后,主要通过仿真得到验证结果,部分通过原型芯片的测量得到验证结果。在所有的模拟中,蒙特卡罗分析在−20°C到60°C的温度范围内使用。使用校准后,输入偏置电压分布平均值在$299\mu V$至$413\mu V$之间,标准差在$356\mu V$ -至$802\mu V$之间。未校准VGA的测量结果表明,60个样品的输入偏置电压分布平均值为403 μ V,标准差为3.45 mV。
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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