Design of High-Speed Nanoscale Adder Logic Circuit for Low Power Consumption

M. Velammal, T. A. Kumar, M. S. Anto, A. A. Roobert
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引用次数: 3

Abstract

This This paper analyses the full Adder with different logic with 20 Transistors and the Full Adder with a different logic and the Buffer with 26 Transistors. The power calculations are done among the Full Adder with different logic (i.e.) average power, Power Leakage and power delay. Analyzing the power calculations of Full Adder with different Logic using 20 Transistors has the lowest delay power than the Full Adder with different logic with Buffer using 26 Transistors. The 4 Bit Ripple Carry Adder is the lowest Delay Power. Due to its low delay power and the efficiency of the 4 Bit Ripple Carry Adder using 20T, the simulation results are performed in the Virtuoso software cadence. The Model based on technology for the 180-nm CMOS process. This suggests that the proposed design have a higher speed than the other complete Adder designs.
面向低功耗的高速纳米加法器逻辑电路设计
本文分析了20个晶体管的不同逻辑全加法器和26个晶体管的不同逻辑全加法器和缓冲器。功率计算在具有不同逻辑(即平均功率、功率泄漏和功率延迟)的全加法器之间进行。分析使用20个晶体管的不同逻辑的全加法器的功率计算,其延迟功率比使用26个晶体管的带缓冲器的不同逻辑的全加法器低。4位纹波进位加法器是最低的延迟功率。由于其低延迟功率和使用20T的4位纹波进位加法器的效率,仿真结果在Virtuoso软件节奏中进行。该模型基于180nm CMOS工艺技术。这表明所提出的设计比其他完整的加法器设计具有更高的速度。
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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