利用金属颗粒导电层实现电力和信号完整性的新技术

Norifumi Sasaoka, Takafumi Ochi, M. Oono, C. Ueda, Y. Akiyama, K. Otsuka
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引用次数: 0

摘要

近年来,电源完整性(PI)已成为电子电路和系统领域中最重要的技术问题,并在一些重要论文中使用几种不同的方法进行了解决[1][2]。最佳PI条件的最新概念是电源和地线或平面之间的低阻抗,无论时钟频率如何,即使在GHz区域也可以保持。这个概念在20世纪80年代的一本比较老的书[3]中提到过,所以它不是最新的想法。然而,使用先前提出的几种方法,包括许多涉及使用低电感电容的方法,不能完全实现这一条件。我们知道,平面电源/地谐振的电磁干扰(EMI)问题是由于涡流或电压波动的多次反射引起的共振而引起的。我们在之前的研究中使用了一种新颖的技术,用分散金属颗粒的导电层代替铜平面[4][5]。这种结构改善了任何时钟频率下的PI,特别是在GHz区域,阻抗小于1 Ω。在这项研究中,我们检查了电磁波传输数据,以研究不同的物理现象,我们提出了一些基本的PI和信号完整性(SI)数据。结果表明,采用金属颗粒导电层的传输线可以使电磁波传输速度产生不同的变化,如提高76%或降低21%。在5 ~ 20 GHz的频率范围内,电源/地面测试券的Z11值在1.8 ~ 3.0 Ω之间。这些结果表明,金属颗粒导电层具有提高PI和SI的有用特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel technology for power and signal integrity using a metal particle conductive layer
Recently, power integrity (PI) has been the most important technological issue in the field of electronic circuits and systems and has been addressed in important papers using several different approaches [1][2]. The latest concept of the best PI condition is a low impedance between the power and ground lines or planes that can be maintained regardless of the clock frequency, even in the GHz region. This concept was mentioned in a relatively old book [3] from the 1980s, so it is not the newest idea. However, this condition cannot be completely realized using several of the previously proposed approaches, including many involving the use of low-inductance capacitances. We are aware that the electromagnetic interference (EMI) problems of plane power/ground resonance are induced because of the resonance caused by eddy currents or multiple reflections of voltage fluctuations. A novel technology was used in our previous study in which a conductive layer of dispersed metal particles was used instead of a copper plane [4][5]. This structure improved the PI for any clock frequency, particularly in the GHz region, with an impedance of less than 1 Ω. In this study, we examine the electromagnetic wave transmission data in order to investigate the different physical phenomena, and we present some fundamental data on PI and signal integrity (SI). The results indicate that the use of a transmission line with a metal particle conductive layer can yield various changes in the electromagnetic wave transmission speed, such as an increase of 76% or a decrease of 21%. The Z11 values of the power/GND plane test coupon were from 1.8 to 3.0 Ω in the frequency region from 5 to 20 GHz. These results suggest that the metal particle conductive layer has useful characteristics for improving the PI and SI.
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