安全的3D CMOS芯片堆栈与后埋金属供电网络分布式去耦电容

H. Sonoda, Kazuki Monta, Takaaki Okidono, Y. Araga, N. Watanabe, H. Shimamoto, K. Kikuchi, N. Miura, Takuji Miki, M. Nagata
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引用次数: 5

摘要

具有背面埋金属(BBM)路由的安全三维(3D) CMOS芯片堆栈在电源输送网络(PDN)中提供低串联阻抗和高去耦能力,这得益于其在全芯片背面区域的分布式电容。具有加密功能的Si演示器采用0.13 μ m CMOS技术,采用后Si晶圆级BBM Cu工艺制作,厚度、线宽和空间分别为10 μ m、15 μ m和35 μ m,直径和深度分别为10 μ m和40 μ m的Si通孔(tsv)。在有效背面面积为71 mm2的情况下,0.18 nF/mm2的电容可抑制单芯片和四个芯片堆栈样品在30 MHz下运行时的动态红外下降,分别为10%和59%。芯片上的电源噪声监测证实了这一点。3D BBM PDN还有效地减少了功率侧信道信息泄漏,如果我们假设电磁噪声发射与加密核心中的秘密信息之间存在统计上有效的相关性,则通过将外部观察到的电磁(EM)噪声波形数量增加8倍来评估其t检验值大于4.5。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Secure 3D CMOS Chip Stacks with Backside Buried Metal Power Delivery Networks for Distributed Decoupling Capacitance
Secure three-dimensional (3D) CMOS chip stacks with backside buried metal (BBM) routing provide low series impedance and high decoupling capability in a power delivery network (PDN), thanks to its distributed capacitances over a full-chip backside area. The Si demonstrator with cryptographic functionality was fabricated in a 0.13-µm CMOS technology with post-Si wafer-level BBM Cu processing with 10 µm, 15 µm and 35 µm of thickness, line width and space, along with through Si vias (TSVs) with 10 µm and 40 µm of diameter and depth, respectively. The capacitance of 0.18 nF/mm2 in the effective backside area of 71 mm2 suppressed dynamic IR drops in 10% and 59% for the single chip and four chip stack samples, respectively, during the operation of a 3.9M-gate crypto core at 30 MHz. This was confirmed by on-chip power noise monitoring. The 3D BBM PDN also effectively reduces power side channel information leakage, which is evaluated by 8x increase in the number of externally observed electromagnetic (EM) noise waveforms to attain the t-test value of larger than 4.5 if we assume the statistically effective correlation between EM noise emission and secret information in the crypto core.
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