Energy Efficient Adder for Bio-Medical Applications

Srilakshmi Kaza, V. N. T. Alapati, Srinivasa Rao Kunupalli
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引用次数: 3

Abstract

Recent developments in sensors and novel device structures have opened up many new possibilities in medical field, especially in implantable medical devices. The battery recharge timing places stringent requirements on power consumption by these devices. The design of energy-efficient circuits and systems thus becomes more crucial. Adder is the basic building block for all these devices. In this paper, a 4-bit Brent-Kung adder is implemented with a new adiabatic logic family derived from the PFAL, denoted as modified PFAL or MPFAL and using FinFET device. The performance of the adder circuit is analyzed by comparing the power dissipation and delay with that of static CMOS and PFAL designs. The simulation results indicate reduction in power dissipation of 98% and 96% over static CMOS and PFAL designs. The delay improvement is 24% for MPFAL circuit.
生物医学应用的节能加法器
近年来传感器和新型器件结构的发展为医疗领域,特别是植入式医疗器件开辟了许多新的可能性。电池充电时间对这些设备的功耗提出了严格的要求。因此,节能电路和系统的设计变得更加重要。加法器是所有这些设备的基本组成部分。本文采用基于PFAL的新型绝热逻辑族实现了一个4位Brent-Kung加法器,称为改进PFAL或MPFAL,并使用FinFET器件。通过与静态CMOS和PFAL设计的功耗和延迟进行比较,分析了加法器电路的性能。仿真结果表明,与静态CMOS和PFAL设计相比,功耗分别降低98%和96%。MPFAL电路的延迟改善为24%。
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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