2022Unpublished venueRequires access

Design and Simulation of a Low PDP Full Adder by Combining Majority Function and TGDI Technique in CNTFET Technology

Mahsa Mohammadi, S. Mohammadali Zanjani, Mehdi Dolatshahi

Open publisher page 4 citations

Abstract

In this study, a full adder based on the transmission gate diffusion input (TGDI) technique and majority function is presented in carbon nanotube field-effect transistor (CNTFET) technology. The proposed design consists of 18 transistors and is simulated using HSPICE software at a voltage of 0.8 V, a frequency of500 MHz, and a load capacitance of 1 fF in 32 nm technology. The simulation results show the reasonable performance of the sum and carry output signals as well as the improvement in power consumption, latency, power-delay product (PDP), and energy-delay product (EDP). The power consumption and delay of the proposed design are, respectively, 697 nW and 13.8 ps, which result in a PDP of 9.67 fJ and an EDP of 1.34 $\times 10^{-28}$ Js.

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What this paper is about

In this study, a full adder based on the transmission gate diffusion input (TGDI) technique and majority function is presented in carbon nanotube field-effect transistor (CNTFET) technology. The proposed design consists of 18 transistors and is simulated using HSPICE software at a voltage of 0.8 V, a frequency of500 MHz, and a load capacitance of 1 fF in 32 nm technology. The simulation results show the reasonable performance of the sum and carry output signals as well as the improvement in power consumption, latency, power-delay product (PDP), and energy-delay product (EDP). The power consumption and delay of the proposed design are, respectively, 697 nW and 13.8 ps, which result in a PDP of 9.67 fJ and an EDP of 1.34 $\times 10^{-28}$ Js.

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Available abstract

In this study, a full adder based on the transmission gate diffusion input (TGDI) technique and majority function is presented in carbon nanotube field-effect transistor (CNTFET) technology. The proposed design consists of 18 transistors and is simulated using HSPICE software at a voltage of 0.8 V, a frequency of500 MHz, and a load capacitance of 1 fF in 32 nm technology. The simulation results show the reasonable performance of the sum and carry output signals as well as the improvement in power consumption, latency, power-delay product (PDP), and energy-delay product (EDP). The power consumption and delay of the proposed design are, respectively, 697 nW and 13.8 ps, which result in a PDP of 9.67 fJ and an EDP of 1.34 $\times 10^{-28}$ Js.

Key concepts: Power–delay product, Carbon nanotube field-effect transistor, Adder, Computer science, Transistor, Electronic engineering, Capacitance, Transmission gate

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Design and Simulation of a Low PDP Full Adder by Combining Majority Function and TGDI Technique in CNTFET Technology — Research Paper | ScholarLens