Sub-20 nm abrupt USJ formation with long ms-flash with sub-2 nm dopant motion control

K. L. Lee, I. Lauer, P. Ronsheim, D. Neumayer, S. Mccoy, P. Kulkarni, J. Chan, S. Skordas, Y. Zhu, J. Gelpey, Dae-gyu Park
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引用次数: 1

Abstract

A new combination of long millisecond (1–2.5 ms) flash anneal at high peak temperature(1200–1300°C) and a new absorber with low deposition temperature (<400 C) have been developed to generate highly activated (Rs~ 500 ohm/sq), sub-20 nm abrupt (≤ 3 nm/decade) N+ and P+ junction. This new approach also provides sub-2nm N+ and P+ junction dopant motion control with multiple long ms-flash which are required for precision device centering and doping for 22 nm and beyond devices. High performance SOI CMOS had been achieved with single long ms-flash and matched well with CMOS created with spike RTA+laser. In addition, long ms-flash NFETs was found to need only ~ ½ of the B halo dose and exhibit no anomalous corner leakage which is sometime found in spike RTA+laser NFETs. These results demonstrate better B halo localization in NFETs with long ms-flash.
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在sub- 2nm掺杂剂运动控制下,在sub- 20nm下突然形成的USJ具有长ms闪光
利用高峰值温度(1200-1300℃)下长毫秒(1-2.5 ms)闪闪退火和低沉积温度(<400℃)的新型吸收剂的新组合,已开发出高活化(Rs~ 500 ohm/sq)、亚20 nm突变(≤3 nm/decade)的N+和P+结。这种新方法还提供了sub-2nm的N+和P+结掺杂运动控制,具有多个长ms闪光,这是精密器件定心和掺杂22 nm及以上器件所需的。采用单长ms闪光实现了高性能SOI CMOS,并与采用尖峰RTA+激光器的CMOS相匹配。此外,发现长ms闪光nfet只需要~ 1 / 2的B晕剂量,并且没有出现在尖峰RTA+激光nfet中有时会发现的异常角漏。这些结果表明,具有长ms闪光的nfet具有更好的B晕定位。
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