基于dpl的三元逻辑电路设计新方法

Narendra Deo Singh, R. Singh, R. Raj, Shivam Jyoti, A. Saha
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引用次数: 1

摘要

本文介绍了一种基于双通管逻辑(DPL)的三进制(base-3)逻辑电路的新设计策略,有利于波管道应用。由于计算速度更快,互连复杂性降低,扇入/扇出减少,存储需求减少等优点,三进制可以取代传统的二进制(以2为基数)数字系统。通过对波形流水线电路的精心设计和适当的粗微调,可以提高数字SOC的整体性能和可靠性。DPL是波浪管道的理想选择,在这项工作中得到了应用。三进制数字(trit)值“0”、“1”和“2”分别用0 V、0.9 V和1.8 V编码。为了验证所提出的策略,设计了2输入的TXOR、TAND和TOR电路,并对仿真结果进行了验证。记录设计电路的速度-功率性能。所有仿真均在TSMC $0.18\mu\ mathm {m}$ CMOS技术上进行,采用Tanner EDA.V13, 1.8 V电源轨,温度为25°C。
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Novel Approach to Design DPL-based Ternary Logic Circuits
Present paper introduces a novel strategy to design Double Pass-transistor Logic (DPL)based Ternary (base-3)logic circuit in favour of wave-pipelined applications. Ternary can be a feasible candidate to replace conventional binary (base-2)number system due to faster computation, reduced interconnect complexity, reduced fan-in/fan-out, less storage requirement and so on. Careful design with proper coarse and fine tuning of wave-pipelined circuit can improve the overall performance and reliability of digital SOC. DPL is a favourable candidate for wave-pipelining and is employed in this work. Ternary digit (“trit”)value “0”, “1” and “2” are coded with 0 V, 0.9 V and 1.8 V respectively. In order to validate proposed strategy the 2-input TXOR, TAND and TOR circuits are designed and the simulation results are verified. Speed-power performance of designed circuit is recorded. All the simulations are carried out on TSMC $0.18\mu\mathrm{m}$ CMOS technology with 1.8 V supply rail and at 25°C temperature using Tanner EDA.V13.
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