揭示界面陷阱电荷对应变vs - fefinfet提高可靠性的影响:器件到电路级评估

IF 2.1 4区 工程技术 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC
Kajal Verma;Rishu Chaujar
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引用次数: 0

摘要

本文重点研究了Si/SiGe应变垂直堆叠铁电finfet (vs - fefinfet)在半导体/氧化物界面界面陷阱电荷(ITCs)影响下提高可靠性的器件到电路级评估。该器件融合了SOI、应变三层硅沟道系统等先进技术,并将铁电材料集成在优质栅极控制FinFET中。栅极工程也被纳入进一步提高器件对ITCs的可靠性,形成了异质介电垂直堆叠的铁电FinFET (HD-VS-FeFinFET),并被发现具有优越的模拟,线性和谐波畸变性能。与VS-FeFinFET相比,泄漏电流降低了91.48%,开关比增加了13倍,品质因数提高了46.01%,跨导率提高了32.77%,器件效率提高了26.54%,ITCs的变化可以忽略不计。HD-VS-FeFinFET (VS-FeFinFET)的各种线性度和谐波参数也得到了改善,并且在不同的ITCs极性下,VIP2的平均变化为4.72% (177.15%),1 db压缩点的平均变化为6.525%(25.3%),这使得它在低功率微波和无失真无线通信应用中更加可靠。分析了基于HD-VS-FeFinFET的CMOS逆变器的进一步逻辑电路应用,结果表明,基于HD-VS-FeFinFET(VS-FeFinFET)的电路的转换范围提高了17.9%,电压增益提高了51.674%,ITCs引起的噪声边际平均变化为3.66%(15.88%),从而使其发展具有增强的功能,可靠性和性能,准备塑造现代电子领域的格局。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Unveiling the Impact of Interfacial Trap Charges on Strained VS-FeFinFETs for Improved Reliability:Device to Circuit Level Assessment
This paper focuses on the device to circuit level assessment of Si/SiGe strained vertically stacked ferroelectric based FinFETs (VS-FeFinFETs) for improved reliability under the influence of interfacial trap charges (ITCs) at the semiconductor/oxide interface. The device is designed with the amalgamation of several advanced technologies such as SOI, strained tri-layered silicon channel system along with the integration of ferroelectric material in superior gate controlled FinFET. Gate engineering has also been incorporated to further improve the device's reliability against ITCs, forming hetero dielectric vertically stacked ferroelectric based FinFET (HD-VS-FeFinFET) and it is found to possess superior analog, linearity, and harmonic distortion performance. It shows 91.48% reduction in leakage current resulting in 13 times increment in switching ratio along with improvement in quality factor by 46.01%, transconductance by 32.77%, and device efficiency by 26.54% with negligible variations due to ITCs as compared to VS-FeFinFET. Various linearity and harmonic parameters also improved and showed negligible average variations like 4.72% (177.15% ) in VIP2 and 6.525% (25.3% ) in 1-dB compression point for HD-VS-FeFinFET (VS-FeFinFET) against different ITCs polarity making it more reliable for low power microwave and distortion less wireless communication applications. Further logic circuit application of HD-VS-FeFinFET based CMOS inverter has been analysed and it shows improvement by 17.9% in transition range, 51.674% in voltage gain along with ITCs induced average variation of 3.66% (15.88% ) in noise margin for HD-VS-FeFinFET(VS-FeFinFET) based circuit thus led to its development with enhanced functionality, reliability, and performance, poised to shape the landscape of modern electronics.
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来源期刊
IEEE Transactions on Nanotechnology
IEEE Transactions on Nanotechnology 工程技术-材料科学:综合
CiteScore
4.80
自引率
8.30%
发文量
74
审稿时长
8.3 months
期刊介绍: The IEEE Transactions on Nanotechnology is devoted to the publication of manuscripts of archival value in the general area of nanotechnology, which is rapidly emerging as one of the fastest growing and most promising new technological developments for the next generation and beyond.
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