电容感知功率优化寄存器的设计与实现

S. Banshal, B. Pandey, S. Brenda
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引用次数: 4

摘要

功率优化是设计中的主要问题。本文通过在寄存器上进行电容缩放来优化功率。时钟功率和信号功率与电容缩放无关。I/O功率和泄漏功率随电容的变化而变化。当我们将电容从512 pF降低到256 pF时,I/O功率下降48.76%,如果进一步降低到128 pF,功率下降73.15%。为了进一步将电容降低到64 pF,减小幅度将达到85.34%。当我们将电容降低到32pf时,功耗降低了97.00%。本设计在28nm Artix7 FPGA上实现。本设计的功耗在XPower 14.6上进行了验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Capacitance scaling aware power optimized register design and implementation on 28nm FPGA
Power optimization is the main concern in designing. In this paper, capacitance scaling is implemented on register to optimize the power. Clock Power & Signal Power are independent of capacitance scaling. I/O Power & Leakage Power is varying with changing capacitance. There is 48.76% drop in I/O Power when we reduce capacitance from 512 pF to 256 pF. In case of reducing further to 128 pF there is 73.15% power reduction occurred. To go more further to reduce capacitance to 64 pF the reduction scale is going up to 85.34%. When we reduce the capacitance to 32 pF the reduction in power dissipation is 97.00%. This design is implemented on 28 nm Artix7 FPGA. The power consumption of this design is verified on XPower 14.6.
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