推动CMOS超越路线图

L. Risch
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引用次数: 55

摘要

今天,90纳米一代已经投入生产,尽管有许多障碍,最新的ITRS 04预计CMOS可以缩小到22纳米节点甚至更高。然而,对于传统的大块CMOS来说,严峻的挑战是显而易见的,需要具有更好的静电通道控制,更低的断开电流和更高的接通电流的新型晶体管。其中,极薄硅通道的多栅极器件是最有前途的。在栅极长度为25-10nm的情况下,FinFET、晶圆键合双栅极和SON栅极等几种结构已被证明具有良好的电特性。在SD区域的某些假设下,量子力学模拟预测硅mosfet可以工作到2nm栅极长度。在20nm的高密度闪存单元中也实现了多栅极晶体管。实现了适合多级存储的大Vt位移。因此,器件路线图不会在22nm节点结束似乎是非常现实的。假设可以满足制造和成本问题,CMOS将继续在纳米电子时代占据主导地位。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Pushing CMOS beyond the roadmap
Today, the 90nm generation is in production and in spite of many roadblocks, the latest ITRS 04 expects that CMOS can be scaled down to the 22nm node and beyond. However, for conventional bulk CMOS serious challenges are evident and new transistors with better electrostatic channel control, lower off-currents and higher on-currents will be needed. Among them, multi-gate devices with very thin silicon channels are most promising. Several architectures like FinFET, wafer bonded double gate and SON gate all around have been demonstrated with good electrical characteristics at gate lengths of 25-10nm. Under certain assumptions for the SD regions, quantum mechanical simulations predict that silicon MOSFETs can be functional down to 2nm gate length. Multi-gate transistors have also been implemented in high density flash memory cells down to 20nm. Large Vt shifts suitable for multi-level storage were achieved. Therefore, it seems very realistic that the device roadmap will not end at the 22nm node. Assuming that manufacturing and cost issues can be fulfilled, CMOS will continue to dominate in the nanoelectronics era.
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