耦合MWCNT信号完整性分析及与铜互连的比较

B. Gugulothu, B. Naik
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引用次数: 2

摘要

本文研究了由CMOS栅极驱动的互耦多壁碳纳米管(MWCNTs)互连线的串扰效应。研究了功能串扰和动态串扰的串扰延时和受害线上的峰值电压。对22nm技术节点的多壁碳纳米管和铜片上互连进行了分析。结果表明,利用MWCNT互连代替Cu,可以使功能串扰延迟缩短61.35%,功能串扰电压降低12.80%,动态同相串扰延迟降低59.14%,动态外相串扰延迟降低67.38%。对于不同的负载容量,使用MWCNT互连代替Cu可使功能串扰延迟缩短62.79%,动态同相串扰延迟降低63.54%,动态外相串扰延迟降低68.24%。仿真结果表明,MWCNT的互连效率明显高于传统的片上铜互连。结果表明,与Cu相比,MWCNT更适合于超大规模的集成系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Analysis of Signal Integrity in Coupled MWCNT and Comparison with Copper Interconnects
In this paper, the crosstalks induced effects are explored in mutually coupled multi-walled carbon nanotubes (MWCNTs) interconnect lines driven by CMOS gates. The crosstalk delays and the peak voltages on the victim line for functional and dynamic crosstalk are investigated. The analyzes has been done for multiwalled carbon nanotubes and copper on-chip interconnects for 22nm technology node. The results show that exploiting the MWCNT interconnects instead of Cu leads to 61.35% shorter functional crosstalk delay, 12.80% lower functional crosstalk voltage and 59.14% lower dynamic in-phase crosstalk delay and 67.38% lower dynamic out-phase crosstalk delay. For different load capacitances utilizing the MWCNT interconnects instead of Cu leads to 62.79% shorter functional crosstalk delay, 63.54% lower dynamic in-phase crosstalk delay and 68.24% lower dynamic out-phase crosstalk delay. The simulation results show that the MWCNT is significantly highly efficient than conventional copper (Cu) on-chip interconnects. It is observed the results shows that the MWCNT are more fit for very large-scale integration system as compared to the Cu.
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