首页> 外文期刊>Journal of Vacuum Science & Technology. B, Microelectronics and Nanometer Structures >Plasma doping technology for fabrication of nanoscale metal-oxide-semiconductor devices
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Plasma doping technology for fabrication of nanoscale metal-oxide-semiconductor devices

机译:等离子体掺杂技术制造纳米级金属氧化物半导体器件

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摘要

We developed a plasma doping (PLAD) technique which is appropriate for the nanoscale metal-oxide-semiconductor field effect transistors (MOSFETs) fabrications. Silicon-on-insulator (SOI) n-MOSFETs with a 50-nm-length metal gate and a 100-nm-channel width were successfully fabricated. The source and drain extensions (SDE) of SOI n-MOSFETs were formed using a plasma doping technique. The advantage of this process is the exclusion of additional activation annealing after introduction of impurity in SDE, which resulted in a laterally abrupt source/drain (S/D) junction profile. We can obtain a low sheet resistance by the PLAD technique and low damaged shallow junctions. A trigate structure SOI n-MOSFET with a gate length of 50 nm fabricated by high-temperature plasma doping revealed suppressed short-channel effects.
机译:我们开发了一种等离子体掺杂(PLAD)技术,该技术适用于纳米级金属氧化物半导体场效应晶体管(MOSFET)的制造。成功制造出长度为50 nm的金属栅极和100 nm的沟道宽度的绝缘体上硅(SOI)n-MOSFET。 SOI n-MOSFET的源极和漏极扩展区(SDE)使用等离子掺杂技术形成。此过程的优点是排除了在SDE中引入杂质后进行的额外激活退火,这导致了源/漏(S / D)结的横向突变。我们可以通过PLAD技术获得较低的薄层电阻,并减少受损的浅结。通过高温等离子体掺杂制造的栅极长度为50 nm的三栅极结构SOI n-MOSFET显示出抑制的短沟道效应。

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