基于碳的三维集成电建模与分析

Libo Qian, Jifei Sang, Yidie Ye, Ge Shi
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引用次数: 0

摘要

在提取等效电路参数的基础上,建立了碳基三维集成输电网络模型,并推导出三维电路中电压降预测的解析公式,其中水平互连和垂直tsv分别采用多层石墨烯纳米带(mlgnr)和碳纳米管(CNTs)构建。电性能比较表明,三维集成的电压降主要由垂直分量决定,因此增加用于供电的信号/地tsv总数可以显著降低三维集成的最大电压降。在目前的制造限制下,与铜互连相比,只有用更大直径的MWCNT tsv和mlgnr构建的碳基3D集成才能获得更低的电压降。研究结果将为未来碳基三维集成提供一定的设计指导。
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Electrical modeling and analysis of carbon based three dimensional integration
Based on extracted equivalent circuit parameters, this paper established the power delivery network model of carbon-based three-dimensional (3-D) integration and derived analytical formulas to predict the voltage drop in the proposed 3-D circuit, in which the horizontal interconnects and vertical TSVs are built with multi-layer graphene nanoribbons (MLGNRs) and carbon nanotubes (CNTs), respectively. Comparison in electrical performance shows that the voltage drop of 3-D integration is dominated by vertical components and therefore increasing the total number of signal/ground TSVs used for power delivery can significantly decrease the maximum voltage drop in 3-D integration. For present fabrication limits, only carbon based 3D integration built with larger diameter MWCNT TSVs and MLGNRs can obtain lower voltage drops in comparison to Cu interconnects. The proposed results would provide some design guides for future carbon-based 3-D integration.
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