Novel Multi-logic gates using Quantum Dot Cellular Automata with energy dissipation analysis

A. M., Anuj Borkute, Nilesh Goel
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Abstract

Quantum dot Cellular Automata (QCA) poses novel computing paradigm to design Nano electronic circuits with favorable proximity intended towards high speed, energy efficient and compact devices. Hence this emerges as a viable beyond CMOS (complementary metal oxide semiconductor) Technology. Many literatures are based on 3 input-1 output majority gate logic, which primarily focuses to reduce the number of cells in single individual logic gates utilized. In this work we are extending our proposed multi-logic gates with different configurations to produce multiple logic functions with the same inputs of individual logic gates and also performing energy dissipation analysis. These gates are very useful since this enables the design of efficient smaller circuits. Proposed multi-logic design consumes less area than that of individual gates. The design is simulated in QCA Designer 2.0 and found in accordance with the logic. An analysis to explore the power dissipated by multi-logic gates is carried out by QCA Designer-E. The area and power efficiency of these multi-logic gates are compared with the previous best designed individual gates. Superior results are obtained and reported here.
基于量子点元胞自动机的新型多逻辑门及其能量耗散分析
量子点元胞自动机(QCA)为设计具有良好接近性的纳米电子电路提供了新的计算范式,旨在实现高速、节能和紧凑的器件。因此,这是一种可行的超越CMOS(互补金属氧化物半导体)技术。许多文献基于3输入1输出多数门逻辑,主要侧重于减少单个逻辑门中使用的单元数。在这项工作中,我们扩展了我们提出的具有不同配置的多逻辑门,以产生具有单个逻辑门相同输入的多个逻辑功能,并进行了能量耗散分析。这些门非常有用,因为这使得设计更小的高效电路成为可能。所提出的多逻辑设计比单个门的设计占地面积小。在QCA Designer 2.0中对该设计进行了仿真,发现符合逻辑。利用QCA Designer-E软件对多逻辑门的功耗进行了分析。将这些多逻辑门的面积和功率效率与以往最佳设计的单个门进行了比较。在这里获得并报告了较好的结果。
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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