双栅无硅结n型晶体管,用于使用3D顺序集成的高性能Cu-BEOL兼容应用

A. Vandooren, L. Witters, E. Vecchio, E. Kunnen, G. Hellings, L. Peng, F. Inoue, W. Li, N. Waldron, D. Mocuta, N. Collaert
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引用次数: 4

摘要

我们提出了一种双栅无结器件,其加工温度与最先进的高密度低k介电后端线铜工艺兼容。研究了生产线后端工艺的热稳定性,表明退火温度高达500℃1h无退化。利用晶圆键合,可以将晶体硅层转移到载流子晶圆上,然后采用栅极优先的方法在低温下对顶部器件进行加工,并与Ti/TiN阻挡层直接W接触。为了避免使用高温退火(尖峰)激活掺杂剂,使用无结器件,其中均匀通道掺杂剂的注入和激活可以在层转移之前完成。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Double-gate Si junction-less n-type transistor for high performance Cu-BEOL compatible applications using 3D sequential integration
We are proposing a double gate junction-less device with a processing temperature compatible with state-of-the-art dense low k dielectric back-end of line copper process. The thermal stability of the back-end of line process was studied, showing no degradation for an anneal temperature up to 500°C 1h. Using wafer bonding, a crystalline silicon layer can be transferred onto a carrier wafer followed by top device processing at low temperature with a gate first approach as well as direct W contacts with Ti/TiN barrier layer. To avoid dopant activation using high temperature anneal (spike), junction-less devices are used, where the uniform channel dopant implantation and activation can be done prior to the layer transfer.
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