低功率运算放大器和数字锁存电路的设计

Raju Ranjan
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引用次数: 1

摘要

当今世界,能源消耗是一个亟待解决的问题。研究人员正在寻找各种新的节能设计技术。将连续时间电流转向电路转换为离散时间电荷转向电路可以降低功耗。电荷转向显示出所有的潜力,成为有效的技术,以减少高速电路的功耗。该技术可用于模拟和半模拟电路的设计,如运算放大器、锁存器和时钟数据恢复(CDR)电路。本文讨论了运算放大器和锁存器等电荷控制电路的设计技术。设计了一级和二级运算放大器电路以及单级和级联形式的不同类型的锁存器。并将电荷转向电路的功率和性能与传统设计技术(如电流模式逻辑电路)进行了比较,以显示改进。结果表明,在获得较好的增益的同时,运算放大器的功耗降低了约87%。所有电路都采用联华电子的180纳米CMOS技术设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Design of low power operational amplifier and digital latch circuits using power efficient charge steering technique
In today's world power consumption is a burning issue. Research is going on to find out various new power efficient design techniques. Power dissipation could be reduced by transforming continuous-time current-steering circuits into discrete-time charge-steering circuits. Charge steering shows all potential to emerge as an effective technique to reduce power dissipation for high-speed circuits. This technique can be exploited in the design of both analog and semi-analog circuits such as an op-amp, latches and clock-data recovery (CDR) circuits. This paper discusses the design techniques of charge steering circuits like op-amp and latches. Both 1st stage and 2nd stage op-amp circuits and different type of latches in a single stage and cascade forms are designed. The power and performances of the charge steering circuits are also compared with conventional design techniques like current mode logic (CML) circuits to show the improvements. The results show that the op-amp power dissipation is reduced by approximately 87% with better gain. All circuits have been designed using UMC's 180 nm CMOS technology.
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