技术缩放对基于FinFET的触发器最小能量点的影响

Osama Abdelkader, H. Mostafa, H. A. Elhamid, A. Soliman
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引用次数: 0

摘要

分析了基于FinFET的传输门(TG)、感测放大器(SA)和半动态(SD)触发器的技术指标,并从20nm技术节点缩放到7nm技术节点。供电电压变化对延迟、功率和能量的影响已被报道。触发器的功率延迟积随着技术的缩放而增强。从最小能量角度评估每个技术节点的最佳供电电压值,该值被业界用于优化逻辑和存储电路设计。例如,考虑到7nm TG触发器,从节能的角度来看,最佳电源电压为0.65V。该工作还根据所获得的仿真结果对每个触发器进行了表征。SD触发器的性能最好,但功耗高。从功耗角度来看,TG触发器是最佳选择,但其时钟负载较高。SA Flip-flop有一个非常有用的特性,即在输出处进行单调转换,这可以驱动快速的多米诺骨牌逻辑,但是它可能有小故障,并且最容易受到软错误的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Impact of technology scaling on the minimum energy point for FinFET based flip-flops
Analysis of FinFET based transmission gate (TG), sense amplifier (SA), and semi dynamic (SD) Flip-flops metrics are evaluated with technology scaling from 20nm down to 7nm technology node. The impact of supply voltage variation on delay, power, and energy is reported. The power delay product of Flip-flops is enhanced with technology scaling. The optimum supply voltage value at each technology node from minimum energy perspective is evaluated which is used by the industry to optimize logic and memory circuitry designs. For instance, considering the 7nm TG Flip-flop, the optimum supply voltage from energy saving point of view occurs at 0.65V. The work also characterizes each Flip-flop according to the obtained simulation results. SD Flip-flop has the best performance, however it exhibits high power consumption. TG Flip-flop is the best choice from power dissipation perspective, but it has high clock load. SA Flip-flop has a very useful feature of monotonous transitions at the outputs, which drives fast domino logic, however it might have glitches and it is the most vulnerable to soft errors.
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