Design and Analysis of Low Power and High Speed FinFET based Hybrid Full Adder/Subtractor Circuit (FHAS)

E. Ramkumar, D. Gracin, P. Rajkamal, P. BhuvanaB., V. S. K. Bhaaskaran
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引用次数: 3

Abstract

In this paper, two novel hybrid adder designs, namely, FHAS-1 and FHAS-2 have been proposed. These designs are designed using multiplexor, XOR and XNOR gates and they can be operated as both adder and subtractor modules effectively. A hybrid logic design principle has been utilized to construct the circuit structures. Transmission gate structures have been employed to realize the multiplexor design which determines whether addition or subtraction operation has to be performed by circuit. These circuits are designed using BSIMCMG FinFET 32nm technology files and the simulation is carried out using Cadence® Virtuoso tool. It is demonstrated that the proposed circuits incur lower power consumption and reduced delay compared to existing adder and subtractor circuit counterparts. Proposed circuits have been analyzed in terms of varying load and changing supply voltage conditions and the efficiency of FHAS-1 and FHAS-2 have been validated. It is observed that proposed FHAS-1 circuit is 81.25%, 42.13%, 25% and 13% more power efficient than the hybrid full adder circuit counterparts such as HFA -19T, HFA -22T, HFA -26T and HFA -17T, respectively.
基于低功率高速FinFET的混合全加/减电路(FHAS)设计与分析
本文提出了两种新型的混合加法器设计,即FHAS-1和FHAS-2。这些设计采用多路复用门、异或门和异或门设计,它们可以有效地作为加法器和减法器模块工作。电路结构采用混合逻辑设计原理。采用传输门结构实现多路复用设计,该多路复用设计决定了是否需要通过电路进行加减操作。这些电路采用BSIMCMG FinFET 32nm技术文件进行设计,并使用Cadence®Virtuoso工具进行仿真。与现有的加减法电路相比,所提出的电路具有更低的功耗和更低的延迟。在变负载和变电源电压条件下对所提出的电路进行了分析,并验证了FHAS-1和FHAS-2的效率。结果表明,与HFA -19T、HFA -22T、HFA -26T和HFA -17T等混合全加法器电路相比,fha -1电路的功率效率分别提高了81.25%、42.13%、25%和13%。
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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