基于低功耗锁存器的智能重新定时设计

K. Singh, Hailong Jiao, J. Huisken, H. Fatemi, J. P. D. Gyvez
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引用次数: 3

摘要

触发器和锁存器是数字集成电路(ic)中构建管道的两种选择。在本文中,通过执行时序和功率分析,研究了将基于触发器的设计转换为基于锁存器的设计的含义。还提出了将基于触发器的设计转换为基于锁存器的设计以及锁存器/触发器混合设计的设计流程。采用一种新的重定时策略,确定了基于锁存器设计和混合设计的最优工作状态,从而获得最大的时间借用或性能提升。与基于触发器的设计相比,基于锁存器的设计和混合设计分别实现了48%和45%的频率提升。在保持与基于触发器的设计相同的性能的同时,借助电源电压缩放,基于锁存器的设计和混合设计在工业28纳米FDSOI CMOS技术中分别降低了21%和16%的功耗。
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Low power latch based design with smart retiming
Flip-flops and latches are two options to construct pipelines in digital integrated circuits (ICs). In this paper, the implications for converting a flip-flop based design to a latch-based design are investigated by performing timing and power analysis. Design flows are also proposed to convert a flip-flop based design to a latch-based design as well as a latch/flip-flop-mixed design. With a new retiming strategy, the optimum operating condition is identified for both the latch based design and the mixed design, where the maximum time borrowing or performance enhancement can be obtained. Compared to the flip-flop based design, 48% and 45% frequency boosting are achieved by the latch based design and the mixed design, respectively. While maintaining the same performance as the flip-flop based design with the aid of supply voltage scaling, the latch based design and the mixed design reduce the power consumption by 21% and 16%, respectively, in an industrial 28-nm FDSOI CMOS technology.
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