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Title: | Performance improvement in side contact multilayer graphene nanoribbon interconnects using intercalated doping |
Authors: | Nishad, A.K. Sharma, R. |
Keywords: | Bandwidth Electric network analysis Equivalent circuits Graphene Multilayers Nanoribbons Network components Energy delay product Equivalent circuit parameter Graphene nanoribbons Interconnect performance Interconnect thickness On-chip interconnects Performance improvement Speedup Integrated circuit interconnects |
Issue Date: | 16-Nov-2016 |
Abstract: | In this paper, we report the performance improvement obtained in side-contact multilayer Graphene nanoribbon (SC-MLGNR) interconnects by using intercalated AsF5. We compare it with that of traditional Cu interconnects as well as undoped (or neutral) SC-MLGNRs for both local/intermediate and global interconnect applications, at 6 nm technology node. We present a qualitative analysis of the effect of intercalation doping on the equivalent circuit parameters of SC-MLGNRs using a driver-load interconnect equivalent circuit. For our analysis, we have considered three interconnect performance metrics: delay, energy-delay product (EDP), and bandwidth density (BWD). We observe that for global interconnects of length 1000 μm the EDP of optimized AsF5-intercalated SC-MLGNRs reduces by 50% while its BWD increases by 1.9× when compared to Cu. Similarly, for interconnect lengths of 500 μm (local/intermediate level interconnects), improvement in EDP and BWD has been 60.13% and 2.4×, respectively as compared to Cu. In our analysis, interconnect thickness is optimized to obtain the lowest delay and EDP along with the highest bandwidth density for both local/intermediate and global interconnects. |
URI: | http://localhost:8080/xmlui/handle/123456789/354 |
Appears in Collections: | Year-2016 |
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