An experimental study on carrier transport in silicon nanowire transistors: How close to the ballistic limit?

Runsheng Wang, J. Zhuge, Ru Huang, Liangliang Zhang, Dong-Won Kim, Xing Zhang, Donggun Park, Yangyuan Wang
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引用次数: 3

Abstract

In this paper, experimental studies on the carrier transport in silicon nanowire transistors (SNWTs) are reported, demonstrating their great potential as an alternative device structure for near-ballistic transport from top-down approach. Both ballistic efficiency and apparent mobility were characterized. A modified experimental extraction methodology for SNWTs is proposed, which takes into account the impact of quantum contact resistance. The highest ballistic efficiency is observed in sub-40 nm n-channel SNWTs due to their quasi-1D carrier transport. The apparent mobility is also extracted in comparison with the ballistic limit, which indicates that the gate-all-around SNWT can really be considered as a promising device architecture in close proximity to the ballistic transport.
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硅纳米线晶体管中载流子输运的实验研究:离弹道极限有多近?
本文报道了硅纳米线晶体管(SNWTs)中载流子输运的实验研究,从自上而下的方法证明了它们作为近弹道输运的替代器件结构的巨大潜力。对弹道效率和表观机动性进行了表征。提出了一种考虑量子接触电阻影响的snwt实验提取方法。由于准一维载流子输运,在40 nm以下的n沟道snwt中观察到最高的弹道效率。通过与弹道极限的比较,提取了表观迁移率,这表明在接近弹道输运的情况下,门-全能SNWT确实可以被认为是一种很有前途的器件结构。
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