Effects of critically damped total PDN impedance in chip-package-board co-design

R. Kobayashi, G. Kubo, H. Otsuka, T. Mido, Y. Kobayashi, H. Fujii, T. Sudo
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引用次数: 7

Abstract

As CMOS LSIs operate at higher clock frequency and at lower supply voltage, power integrity is becoming a critical issue to maintain digital electronic systems more stable. Power supply fluctuation excited by core circuits or I/O circuits induces logic instability and electromagnetic radiation. Therefore, total impedance of power distribution network (PDN) must be taking into consideration in the chip-package-board co-design. Especially, anti-resonance peaks in the PDN due to the parallel combination of on-chip capacitance and package inductance induces the unwanted power supply fluctuation, and results in the degradation of signal integrity and electromagnetic interference (EMI). In this paper, effects of critical damping condition for the total PDN impedance on power supply noise has been studied by designing different on-chip PDN properties. The measured power supply noises for the four test chips successfully showed typical characteristics of 3 different regions. The critical damping condition against the anti-resonance peak has been proved to be effective to suppress the power supply noise on a chip.
临界阻尼总PDN阻抗对芯片封装板协同设计的影响
随着CMOS lsi工作在更高的时钟频率和更低的电源电压下,电源完整性成为保持数字电子系统更稳定的关键问题。由核心电路或输入输出电路激发的电源波动会引起逻辑不稳定和电磁辐射。因此,在芯片-封装-板协同设计中必须考虑配电网络的总阻抗。特别是,由于片上电容和封装电感的并联组合,PDN中的抗谐振峰值会引起不必要的电源波动,从而导致信号完整性和电磁干扰(EMI)的降低。本文通过设计不同的片上PDN特性,研究了PDN总阻抗的临界阻尼条件对电源噪声的影响。四种测试芯片的电源噪声测量结果成功地显示了3个不同区域的典型特征。针对抗共振峰值的临界阻尼条件被证明可以有效地抑制芯片上的电源噪声。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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