Low Power Full Adder Design Using PTM Transistor Model

Bappy Chandra Devnath, S. Biswas
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引用次数: 2

Abstract

Abstract At present the processing power of the digital electronic chip is enormous and that has been possible because of the continuous improvement of the design methodology and fabrication technology. So, the data processing capability of the chip is increased significantly. Data processing in the electronic chip means the arithmetic operation on that data. For that reason, ALU is present in any processor. Full adder is one of the critical components of arithmetic unit. Improvement of the full adder is necessary for improving the computational performance of a chip. In order to design an efficient full adder, designer should choose an appropriate logic style. In this research, two new model of full-adder circuits are designed and analyzed using Pass Transistor logic in order to reduce power consumption and increase operational speed. The first proposed adder consists of 8 transistors and the second one consists of 10 transistors. LTSPICE is employed for simulating the proposed circuits using16nm low power high-k strained silicon transistor model. The overall performance of the proposed adder circuits and comparative results demonstrate the superiority of the proposed model.
基于PTM晶体管模型的低功耗全加器设计
摘要目前,数字电子芯片的处理能力是巨大的,由于设计方法和制造技术的不断改进,这是可能的。因此,芯片的数据处理能力显著提高。电子芯片中的数据处理意味着对该数据进行算术运算。因此,ALU存在于任何处理器中。全加器是算术单元的关键部件之一。为了提高芯片的计算性能,需要对全加器进行改进。为了设计一个高效的全加器,设计者应该选择合适的逻辑样式。在本研究中,为了降低功耗和提高运算速度,使用Pass Transistor逻辑设计并分析了两种新的全加电路模型。第一个加法器由8个晶体管组成,第二个加法器由10个晶体管组成。利用LTSPICE对所提出的16nm低功率高k应变硅晶体管模型进行了仿真。所提出的加法器电路的总体性能和比较结果表明了所提出的模型的优越性。
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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