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首页> 外文期刊>ECS Journal of Solid State Science and Technology >Pinch Off Plasma CVD Deposition Process and Material Technology for Nano-Device Air Gap/Spacer Formation
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Pinch Off Plasma CVD Deposition Process and Material Technology for Nano-Device Air Gap/Spacer Formation

机译:用于纳米装置气隙/间隔形成的夹紧等离子体CVD沉积工艺和材料技术

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As integrated circuits for high performance CMOS devices scale down to = 10 nm dimension, further reductions in capacitance are vitally important for device performance. It is important to reduce capacitance in the FEOL and BEOL device structures while maintaining fabrication integration robustness. This paper presents an overview of material and process technology requirements for FEOL air spacer and BEOL air gap formation using a pinch off deposition approach. These approaches utilize established dielectric materials and processes such as Plasma CVD of SiN, SiCN, SiCOH, pSiCOH, in the formation of the air spacer/air gap. The selection of these dielectric materials and processes has a large impact in the void (gap) dimension and volume. The void dimension and volume in airgap/air spacer structures can be controlled with various dielectric deposition processes and materials to facilitate subsequent process fabrication steps, and ultimately to build a robust device with substantial capacitance reduction. (c) The Author(s) 2018. Published by ECS. This is an open access article distributed under the terms of the Creative Commons Attribution 4.0 License (CC BY, http://creativecommons.org/licenses/by/4.0/), which permits unrestricted reuse of the work in any medium, provided the original work is properly cited.
机译:作为高性能CMOS器件的集成电路,缩小到& = 10 nm尺寸,电容的进一步降低对器件性能至关重要。重要的是要减少FEOL和BEOL器件结构的电容,同时保持制造集成鲁棒性。本文概述了使用夹切沉积方法的Feol Air Spacer和Beol气隙形成的材料和工艺技术要求。这些方法利用建立的介电材料和过程,例如SIN,SICN,SICOH,PSICOH的等离子体CVD,形成空间间隔物/气隙。这些介电材料和工艺的选择在空隙(间隙)尺寸和体积中具有很大的影响。气隙/空间间隔结构中的空隙尺寸和体积可以用各种介电沉积工艺和材料控制,以便于随后的工艺制造步骤,最终建立具有大量电容的鲁棒装置。 (c)2018年提交人。由ECS发布。这是一个开放式访问文章,分布在Creative Commons归因4.0许可证(CC By,http://creativommommons.org/licess/by/4.0/)下,这允许在任何媒体中不受限制地重用工作,提供了原创作品被正确引用。

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