应力技术对90nm以下SOI cmosfet器件性能和可靠性的影响

W. Yeh, Chieh-Ming Lai, Chien-Ting Lin, Yean-Kuen Fang, W. Shiau
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引用次数: 1

摘要

在这项工作中,对于在Si衬底上的90nm PD-SOI cmosfet,研究了高拉伸应力GC衬底- sin厚度对器件性能和热载子诱导降解的影响。对于nmosfet, 700A GC - sin器件比1100A GC - sin器件具有明显的迁移率增强和热载流子可靠性抗扰性。我们认为较厚的GC衬垫- sin (1100A)会产生较大的应力缺陷,破坏器件的通道晶格结构,从而降低器件的性能。对于pmosfet,高拉伸应力GC - sin厚度对器件性能的影响并不明显。提高迁移率的主要因素是硅衬底的通道取向。为了提高pmosfet的可靠性,有必要优化高拉伸应力GC - sin技术。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Stress technology impact on device performance and reliability for <100> sub-90nm SOI CMOSFETs
In this work, for 90nm PD-SOI CMOSFETs on <100> Si substrate, the impacts of high tensile stress GC liner-SiN thicknesses on device performance and hot-carrier induced degradations were investigated. For nMOSFETs, devices with 700A GC liner-SiN possess apparent mobility enhancement and hot-carrier reliability immunity than devices with 1100A GC liner-SiN do. We believed that thicker GC liner-SiN (1100A) induce large stress defects and makes damage to the device's channel lattice structure, thus degrading device characteristics. For pMOSFETs, the effects of high tensile stress GC liner-SiN thicknesses on device performance are not apparent. The major factor of mobility improvement is <100> channel orientation Si substrate. It is necessary to optimum high tensile stress GC liner-SiN technology to enhance pMOSFETs reliability.
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