A method of customizing GasP with logical effort

Yan Wang, Xun Li, Tong Fu, Mingyang Zhou, Zhengbang Kang, Mingxiao Guan, Anping He
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Abstract

The GasP circuit is a high-speed controller that has been used more often in the field of asynchronous circuits. However, in the conventional GasP design method, the matching process of its internal delay lacks the consideration of the circuit application environment. In view of this, this paper proposes three delay adjustment methods by combining the usage scenario of the circuit and the logical effort. The method first adjusts the pulse width of the digital circuit, the ability to drive the DFF and the maximum equivalent frequency of the circuit, then customizes the delay and drive of the GasP, and finally verifies the performance with a NoC built with the GasP. The experimental results show that the maximum equivalent frequency of GasP can reach 2.28GHz in 110nm CMOS process, which is about 10 times of the classical synchronous design.
一种通过逻辑努力定制GasP的方法
GasP电路是异步电路领域中应用较多的一种高速控制器。然而,在传统的GasP设计方法中,其内部延迟的匹配过程缺乏对电路应用环境的考虑。鉴于此,本文结合电路的使用场景和逻辑努力,提出了三种延迟调整方法。该方法首先调整数字电路的脉宽、驱动DFF的能力和电路的最大等效频率,然后定制GasP的延迟和驱动,最后用GasP构建的NoC验证性能。实验结果表明,在110nm CMOS工艺中,GasP的最大等效频率可达2.28GHz,是传统同步设计的10倍左右。
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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