Circuit Optimization at 22nm Technology Node

A. Sachid, Pallavi Paliwal, S. Joshi, M. Baghini, D. Sharma, V. Rao
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引用次数: 6

Abstract

With every new technology node, scaling down of Device-to-Interconnect Capacitance ratio causes Interconnect delay to become bottleneck for circuit performance. To miti-gate this effect, interconnect routing area on-chip should be minimized for improved power-delay product. In this aspect, Fin FET with multiple fins per lithographic pitch gains more advantage, in comparison to Planar Device, since, such Fin FET devices allow increase of electrical width without increasing device layout area and thus, interconnect capacitance is comparatively lower. Therefore, minimum delay could be achieved for lesser device width, and thus, with lower power. This paper proves the performance enhancement with such Fin FET Device for Mux Circuit, and aims to find out Optimum Design Space for Mux Circuit, at 22nm technology node, with practical value of Interconnect Capacitive load (extrapolated from circuit layout in current technology node).
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22nm工艺节点的电路优化
随着每一个新技术节点的出现,器件与互连电容比的缩小导致互连延迟成为电路性能的瓶颈。为了减轻这种影响,应尽量减少片上互连路由面积,以改善功率延迟产品。在这方面,与Planar器件相比,每个光刻节距具有多个翅片的Fin FET具有更大的优势,因为这种Fin FET器件允许在不增加器件布局面积的情况下增加电宽度,因此互连电容相对较低。因此,最小的延迟可以实现较小的器件宽度,从而以较低的功耗。本文验证了这种用于Mux电路的Fin FET器件的性能提升,旨在找出在22nm技术节点下Mux电路的最佳设计空间,具有互连电容负载的实用价值(从当前技术节点的电路布局推断)。
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