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首页> 外文期刊>IEEE Electron Device Letters >Cointegration of In Situ Doped Silicon;Carbon Source and Silicon;Carbon I-Region in P-Channel Silicon Nanowire Impact-Ionization Transistor
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Cointegration of In Situ Doped Silicon;Carbon Source and Silicon;Carbon I-Region in P-Channel Silicon Nanowire Impact-Ionization Transistor

机译:P沟道硅纳米线冲击电离晶体管中原位掺杂硅;碳源和硅;碳I区的共集成

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摘要

The p-channel impact-ionization nanowire multiple- gate field-effect transistors (I-MuGFETs or I-FinFETs), which have a multiple-gateanowire-channel architecture, were demonstrated. The superior gate-to-channel coupling reduces the breakdown voltage VBD for enhanced device performance. For the first time, an in situ doped source was incorporated with the impact-ionization MOS transistor. The in situ phosphorus-doped Si source with improved dopant activation and very abrupt junction profile reduces VBD and enhances the on-state current Ion. An additional improvement was also achieved by incorporating a strained Si1-yCy impact-ionization region (I-region) and an in situ doped Si1-yCy source, leading to reduction in Vbd and enhancement in Ion. This is due to strain-induced reduction of the impact-ionization threshold energy Eth. Furthermore, an excellent subthreshold swing of below 3 mV/decade at room temperature was achieved for all devices.
机译:演示了具有多栅极/纳米线通道架构的p沟道碰撞电离纳米线多栅极场效应晶体管(I-MuGFET或I-FinFET)。出色的栅极至通道耦合降低了击穿电压VBD,从而增强了器件性能。首次将原位掺杂源与碰撞电离MOS晶体管结合在一起。具有改善的掺杂剂活化和非常陡峭的结轮廓的原位磷掺杂的硅源降低了VBD并增强了导通电流Ion。通过并入应变的Si1-yCy碰撞电离区域(I区域)和原位掺杂的Si1-yCy源,还实现了另一项改进,从而降低了Vbd,增强了离子。这是由于应变引起的碰撞电离阈值能量Eth的降低。此外,所有器件在室温下都具有低于3 mV /十倍频的出色亚阈值摆幅。

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