片上互连的表征:28nm CMOS技术的案例研究

Arash Ebrahimi Jarihani, Sahar Sarafi, Michael Köberle, J. Sturm, A. Tonello
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引用次数: 4

摘要

片上高速网络的性能主要受全局片上互连性能的影响。本文研究了一种点对点传输线互连,以解决新CMOS技术中由于片上全局互连的缩放问题而导致的性能限制。简要说明应考虑的传输线的基本特性。此外,还给出了设计片上互连和理解其行为的设计方法。根据不同的传输线几何形状,进行了三维电磁仿真,并进行了s参数分析,分析了不同金属层、信号线宽度和互连屏蔽层间距的影响。这使得系统地了解片上互连的设计及其对各种参数的性能依赖。最后,采用8金属层28nm CMOS标准技术,实现了具有蛇形和屏蔽层的5 mm长片上损耗传输线。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Characterization of On-Chip Interconnects: Case Study in 28 nm CMOS Technology
Performance of a high-speed network on a chip is mainly affected by the performance of the global on-chip interconnects. This paper investigates a point-to-point transmission line interconnect to address the performance limitations due to the scaling problems of on-chip global interconnects in new CMOS technologies. A brief explanation is given about the basic properties of the transmission lines that should be considered. Moreover, the design methodology is given for designing the on-chip interconnect and understanding its behavior. Based on the different transmission line geometry, 3D EM simulations are done and S-parameters are carried out to analyze the effects of the different metal layers, width of the signal line, and space to shield layers of the interconnect. This results in a systematic understanding of the design of the on-chip interconnect and its performance dependence on various parameters. Finally, a 5 mm length on-chip lossy transmission line with serpentine shape and shielding layers is implemented in 8-metal-layer 28 nm CMOS standard technology.
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