A Cost Efficient QCA Compressor Topologies for Fast Nano Computing Applications

D. Tripathi, Subodh Wairya
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Abstract

Quantum-dot cellular automata is a cutting edge enumeration methodology that suggests less area and high speed compare with CMOS technology towards nano-computing. Innovative digital automation always heading towards high density, and very less power using up. This paper basically focuses on the design and execution investigation with cell optimization of numerous compressor topology designs. In this paper, we suggested a proficient, less complex numerous compressor topologies like 4:2, 5:2 compressor topologies with the help of proposed ultra-efficient Multiplexer (MUX) in QCADesigner simulation environment for fast computing applications like signal and image processing etc. Those architectures are modest in design and conquer a section of the area associated with previous designs. The projected efficient 2:1 MUX topologies are the smallest among all the previous designs. Simulation result presents that the proposed structures have attained major enhancements in positions of circuit complexity. Our proposed QCA 2:1 MUX architecture topologies involve 58.06% less area and QCA 4:2 compressor architecture topologies involve 25.41% less area and QCA 5:2 compressor architecture topologies involve 21.05% less area and low power dissipation as equated with the rest designs. The functionality of projected structures estimated in the QCADesigner simulation environment.
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用于快速纳米计算应用的低成本QCA压缩拓扑
量子点元胞自动机是一种面向纳米计算的前沿枚举方法,与CMOS技术相比,它具有面积小、速度快的特点。创新的数字自动化总是朝着高密度的方向发展,并且耗电非常少。本文主要对众多压缩机拓扑设计进行单元优化的设计与执行研究。在本文中,我们在qcaddesigner仿真环境中,利用所提出的超高效多路复用器(MUX),提出了一种精通的、不太复杂的压缩器拓扑,如4:2、5:2压缩器拓扑,用于信号和图像处理等快速计算应用。这些建筑在设计上是适度的,并征服了与以前的设计相关的部分区域。预计的高效2:1 MUX拓扑是所有先前设计中最小的。仿真结果表明,所提出的结构在电路复杂度方面有较大的提高。与其他设计相比,我们提出的QCA 2:1 MUX架构拓扑占地面积减少58.06%,QCA 4:2压缩机架构拓扑占地面积减少25.41%,QCA 5:2压缩机架构拓扑占地面积减少21.05%,功耗低。在qcaddesigner仿真环境中对投影结构的功能进行了估计。
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