功率延迟优化的32位基数-4,稀疏-4前缀加法器

N. Poornima, V. S. K. Bhaaskaran
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引用次数: 0

摘要

加法在所有数据路径中都是至关重要的操作。功耗和速度性能仍然是确定加法器选择的主要因素。为了达到理想的能量效率或更低的功耗,特定加法器拓扑的选择起着重要作用。使用并行前缀加法器(PPAs)等结构可以最大限度地降低加法器的运行速度或电路延迟。提出了一种稀疏度为4的基数4位并行前缀加法器。该工作涉及使用基数-4的32位加法器的结构实现和实现,并与基数-2的32位加法器进行功率,延迟,功率延迟积(PDP)和计算节点数量的比较。仿真结果表明,该算法实现了最小PDP。分析了引入基数4和稀疏性对加法器结构功率和时延参数的影响。采用Cadence EDA工具对加法器进行了原理图实现,并采用180nm块体CMOS技术进行了仿真。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Power-Delay Optimized 32 Bit Radix-4, Sparse-4 Prefix Adder
Addition is a vital operation in all data paths. The power dissipation and speed performance remain the primary factors that identify the choice of adders. To achieve the desired energy efficiency or lower power dissipation, the selection of the particular adder topology plays a major role. The operating speed of adder or the circuit latency of adder can be minimized by the use of architectures such as Parallel Prefix Adders (PPAs). This paper presents a radix-4, 32-bit Parallel Prefix Adder with a sparseness of 4. The work involves the structural realization and implementation of a 32-bit adder using radix-4 and comparison with a radix-2 32-bit adder for the power, delay, power-delay-product (PDP) and the number of computational nodes. Simulation results reveal that the radix-4 32-bit Parallel Prefix Adder realizes minimum PDP. The effects of introducing the radix-4 and sparseness on power and delay parameters of the adder structure are analyzed. Cadence EDA tool is used for the schematic implementation of the adders and simulations have been performed using 180nm bulk CMOS technology.
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