Standard Cell Design Optimization with Advanced MOL Technology in 3nm GAA Process

Giyoung Yang, Hakchul Jung, J. Lim, Jaewoo Seo, Ingyum Kim, Jisun Yu, H. You, Jeongsoon Kong, Garoom Kim, Minjae Jeong, Chanhee Park, Sera An, W. Rim, Hayoung Kim, Dalhee Lee, S. Baek, Jonghoon Jung, T. Song, J. Kye
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Abstract

In this paper, standard cell design challenges for the 3nm process are introduced, solved, and optimized using the advanced MOL technology, AC P–N connection. In this methodology, each drain nodes of P and NMOS are connected using a single MOL layer (AC). Utilizing the AC P–N connection, standard cell library can be improved in three different ways. First, reduce the parasitic wire resistance by more than 20% and improve circuit reliability by alleviating a high current density. Second, Ceff improvement by composing only the MOL layer (AC) for the output node of the cell improves the standard cell speed up to 9.6%. Third, we propose a novel Flip-Flop (FF) structure optimized for AC P–N connection, thus improving the speed of the FF (1/TD2Q) by 9.1%.
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基于先进MOL技术的3nm GAA制程标准电池设计优化
本文介绍了3nm工艺的标准电池设计挑战,并利用先进的MOL技术,AC P-N连接进行了解决和优化。在这种方法中,P和NMOS的每个漏极节点使用单个MOL层(AC)连接。利用交流P-N连接,标准单元库可以通过三种不同的方式进行改进。首先,将寄生线电阻降低20%以上,并通过减轻高电流密度来提高电路可靠性。其次,通过仅组成电池输出节点的MOL层(AC)来改进Ceff,将标准电池速度提高到9.6%。第三,我们提出了一种针对交流P-N连接优化的新颖触发器(FF)结构,从而将FF (1/TD2Q)的速度提高了9.1%。
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