高性能节能的256位CMOS优先编码器

D. Balobas, Nikos Konofaos
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引用次数: 6

摘要

提出了一种高性能、高能效的256位CMOS优先编码器,并采用32nm预测技术在晶体管级实现。新电路采用完全定制的方法设计,并结合了两种新颖的逻辑风格:多输出单调CMOS (M2CMOS)和动态反转技术(DI)。相对于输入大小,所获得的性能是O(log2(N))的数量级。基于仿真的对比分析得出结论,与传统设计相比,该电路的延迟提高了57%,能耗提高了8%,EDP提高了39%,同时晶体管数量减少了20%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High-Performance and Energy-Efficient 256-Bit CMOS Priority Encoder
A high-performance and energy-efficient 256-bit CMOS priority encoder is presented and realized on transistor level using 32 nm predictive technology. The new circuit is designed with a full custom approach and incorporates 2 novel logic styles: the Multiple-Output Monotonic CMOS (M2CMOS) and the Dynamic Inversion technique (DI). The achieved performance is in the order of O(log2(N)), with respect to the input size. A simulation-based comparative analysis concludes that, compared to the conventional design, the proposed circuit achieves up to 57% improvement in delay, 8% improvement in energy consumption and 39% improvement in EDP, while maintaining 20% smaller transistor count.
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