Power/ground noise coupling comparison and analysis in silicon, organic and glass interposers

Youngwoo Kim, Kyungjun Cho, Subin Kim, Gapyeol Park, Joungho Kim
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引用次数: 1

Abstract

In this paper, we compare and analyze power/ground noise coupling in silicon, organic and glass interposers. We first compare the power/ground noise coupling of each interposer by analyzing transfer impedances of power distribution networks (PDNs). Due to low loss of the organic and glass substrates, at certain frequencies, transfer impedances increase dramatically and. In order to analyze the effects of the power/ground noise propagation in the PDN and coupling to through via channel we induced clock signals to each interposer's aggressor through via channel with data rate corresponds to the PDN (1,0)/(0,1) resonance frequency to load the power/ground noises in the PDN. We monitored the coupled voltages in the PDNs and compared eye-diagrams of the victim through via channels. Due to the low loss of the glass substrate, glass interposers turned out to be most vulnerable to the power/ground noise. We suppressed PDN transfer impedance of the glass interposer using decoupling capacitors and electromagnetic band gap structure.
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硅、有机和玻璃介面中功率/地噪声耦合的比较与分析
在本文中,我们比较和分析了硅、有机和玻璃中间层的功率/地噪声耦合。我们首先通过分析配电网络的传输阻抗来比较各介面间的功率/地噪声耦合。由于有机基板和玻璃基板的损耗低,在某些频率下,传输阻抗急剧增加。为了分析功率/地噪声在PDN中传播和耦合的影响,我们将时钟信号通过数据速率对应于PDN(1,0)/(0,1)谐振频率的通道诱导到每个中介器的攻击器,以加载PDN中的功率/地噪声。我们监测了pdn的耦合电压,并通过通道比较了受害者的眼图。由于玻璃衬底的低损耗,玻璃衬底最容易受到功率/地噪声的影响。我们利用去耦电容和电磁带隙结构抑制玻璃中间层的PDN传输阻抗。
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