可逆乘法器电路的ASIC设计

A. Hatkar, A. A. Hatkar, N. Narkhede
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引用次数: 21

摘要

由于可逆逻辑在低功耗CMOS、量子计算、纳米技术和光计算等领域的应用具有低功耗的特点,因此对未来计算技术的需求非常大。加法器和乘法器是许多计算单元的基本组成部分。在本文中,我们通过改进的Baugh-Wooley方法在ASIC中使用标准可逆逻辑门/单元,基于互补通管逻辑,提出并实现了可逆华莱士签名乘法器电路,并通过仿真,布局与原理图检查和设计规则检查进行了验证。与现有的乘法器相比,所提出的乘法器在门的数量、恒定输入、垃圾输出、硬件复杂性和所需晶体管的数量等方面都得到了更好的优化。Cadence的工具也表明,可逆乘法器在功耗方面优于不可逆乘法器。
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ASIC Design of Reversible Multiplier Circuit
Reversible logic is very much in demand for the future computing technologies as they are known to produce low power dissipation having its applications in Low Power CMOS, Quantum Computing, Nanotechnology, and Optical Computing. Adders and multipliers are fundamental building blocks in many computational units. In this paper we have presented and implemented reversible Wallace signed multiplier circuit in ASIC through modified Baugh-Wooley approach using standard reversible logic gates/cells, based on complementary pass-transistor logic and have been validated with simulations, a layout vs. Schematic check, and a design rule check. It is proved that the proposed multiplier is better and optimized, compared to its existing counterparts with respect to the number of gates, constant inputs, garbage outputs, hardware complexity, and number of transistors required. It has also been shown in Cadence's tools that the reversible multiplier outperform the irreversible multiplier in terms of power dissipation.
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