一个225mhz谐振时钟ASIC芯片

C. Ziesler, Joohee Kim, V. Sathe, M. Papaefthymiou
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引用次数: 23

摘要

我们最近设计、制造并成功测试了一种实验芯片,该芯片验证了一种通过能量恢复来减少时钟耗散的新方法。我们的方法包括一个单相正弦时钟信号,一个lc谐振正弦时钟发生器和一个能量恢复触发器。我们的芯片由双模ASIC组成,具有两个独立的时钟系统,一个是常规时钟系统,一个是能量回收时钟系统,并以0.25 /spl mu/m的批量CMOS工艺制造。该专用集成电路计算具有自检功能的流水线离散小波变换,包含3500多个门。我们已经验证了正确的功能,并在频率高达225 MHz的两种工作模式下获得了功率测量。在能量回收模式下,我们的功率测量考虑了所有耗散因素,包括集成谐振时钟发生器的运行,并显示出比传统运行模式节省的净能量。例如,在115 MHz时,根据主输入活动的不同,测量到的耗散在传统模式的60%到75%之间。据我们所知,这是有史以来第一次发表的直接实验测量比较完整的能量回收ASIC芯片与其在超过100 MHz的频率下在硅中正确运行的传统实现之间的比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 225 MHz resonant clocked ASIC chip
We have recently designed, fabricated, and successfully tested an experimental chip that validates a novel method for reducing clock dissipation through energy recovery. Our approach includes a single-phase sinusoidal clock signal, an L-C resonant sinusoidal clock generator, and an energy recovering flip-flop. Our chip comprises a dual-mode ASIC with two independent clock systems, one conventional and one energy recovering, and was fabricated in a 0.25 /spl mu/m bulk CMOS process. The ASIC computes a pipelined discrete wavelet transform with self-test and contains over 3500 gates. We have verified correct functionality and obtained power measurements in both modes of operation for frequencies up to 225 MHz. In the energy recovering mode, our power measurements account for all of the dissipation factors, including the operation of the integrated resonant clock generator, and show a net energy savings over the conventional mode of operation. For example, at 115 MHz, measured dissipation is between 60% and 75% of the conventional mode, depending on primary input activity. To our knowledge, this is the first ever published account of a direct experimentally-measured comparison between a complete energy recovering ASIC chip and its conventional implementation correctly operating in silicon at frequencies exceeding 100 MHz.
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