Nanocarbon interconnects: Current status and prospects

Shintaro Sato
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引用次数: 1

Abstract

Nanocarbon materials represented by graphene and carbon nanotubes (CNTs) are promising candidates for future LSI interconnects. We recently fabricated sub-10-nm-wide graphene interconnects whose resistivity was lower than that of Cu with the same dimensions [1]. In this presentation, we first describe the fabrication and evaluation of such graphene interconnects. Multilayer graphene (MLG) was synthesized by chemical vapor deposition. Intercalation of FeCl3 into MLG was then performed to lower the resistance of MLG. In fact, the resistances of MLG interconnects decreased by about one-twentieth after intercalation [2]. The resultant resistivity of MLG was as low as that of bulk Cu. We further describe the fabrication and evaluation of 8-nm-wide MLG interconnects. In the second part, we explain a newly-developed fabrication process for carbon nanotube (CNT) vias and plugs, which relies on implantation of CNTs into sub-micrometer-sized holes [3]. In fact, we succeeded in implanting bundles of CNTs into holes with dimeters as small as 130 nm. The electrical properties of CNT plugs thus fabricated were then evaluated, exhibiting resistances lower than those of the CNT plugs reported previously.
纳米碳互连:现状与展望
以石墨烯和碳纳米管为代表的纳米碳材料是未来大规模集成电路互连的有前途的候选材料。我们最近制作了低于10纳米宽的石墨烯互连,其电阻率低于相同尺寸的铜。在本报告中,我们首先描述了这种石墨烯互连的制造和评估。采用化学气相沉积法合成了多层石墨烯。然后将FeCl3插入到MLG中以降低MLG的电阻。事实上,插入[2]后,MLG互连的电阻降低了约二十分之一。MLG的电阻率与大块铜的电阻率一样低。我们进一步描述了8纳米宽MLG互连的制造和评估。在第二部分中,我们解释了一种新开发的碳纳米管(CNT)过孔和塞的制造工艺,该工艺依赖于将碳纳米管植入亚微米大小的孔[3]。事实上,我们成功地将碳纳米管束植入直径小至130 nm的孔中。然后评估了这样制造的碳纳米管插头的电学性能,显示出比以前报道的碳纳米管插头更低的电阻。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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