使用基于NAND的压缩器的乘法器

Tella Satish, Kirti S. Pande
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引用次数: 8

摘要

本文提出了一种基于NAND的5:3压缩器,用于实现高阶15:4压缩器。采用提议的5:3压缩机的15:4压缩机性能与使用现有低阶压缩机(如6:3,7:3和使用全/半加法器)的15:4压缩机性能进行比较。在乘法器设计中,压缩机用于在不同阶段添加部分乘积项。所有的低阶压缩器都使用堆叠的方法来最小化使用基本逻辑门实现的关键路径上的异或门的数量。根据提出的想法,所有的低阶压缩机都设计为仅使用NAND门进行比较,并依次用于实现高阶15:4压缩机。在设计中仅使用NAND门提高了设计的均匀性,并在通过关键路径的延迟方面进行了更好的比较。采用本文提出的5:3压缩机实现的15:4压缩机在面积、功率和时延方面均达到了最佳效果。该优化后的15:4压缩机作为高阶压缩机的主要模块,与所需数量的其他低阶压缩机一起实现16×16乘法器,并与文献调查中解释的现有16×16华莱士树乘法器进行比较。采用Xilinx软件进行了功能仿真,采用90nm技术的Cadence RTL编译器进行了性能比较。结果表明,与现有的16×16华莱士树乘法器相比,采用该方法的16×16乘法器在面积、功率和时延方面分别提高了6.01%、4.243%和9.97%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multiplier Using NAND Based Compressors
In this paper, NAND based 5:3 compressor is proposed and is used to implement a high order 15:4 compressor. The 15:4 compressor's performance that uses proposed 5:3 compressor is compared with the implemented 15:4 compressor using existing low order compressors such as 6:3, 7:3 & using full/half adders. Compressors are used to add the partial product terms in the multiplier design at various stages. All the low order compressors use stacking approach to minimize the number of XOR gates along the critical path that uses basic logic gates for implementation. As per the proposed idea all the low order compressors are designed using only NAND gates for the comparison purpose and are in turn used to implement high order 15:4 compressor. Usage of NAND gates only in the design improves the design uniformity and gives better comparison in terms of the delay through the critical path. The optimum result for area, power and delay is observed for the 15:4 compressor implemented using 5:3 compressor proposed in this paper. This optimized 15:4 compressor as a major block of high order compressor, along with required number of other low order compressors, is used to implement a 16×16 multiplier and compared with existing 16×16 Wallace tree multiplier explained in literature survey. The functional simulation is carried out using Xilinx and the performance comparison is done using Cadence RTL compiler at 90 nm technology. The result shows that there is an improvement of 6.01%, 4.243%, & 9.97% with respect to area, power & delay respectively, in 16×16 multiplier using proposed idea when compared with existing 16×16 Wallace tree multiplier.
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