Development of a Cryogenic System for the Characterization of Advanced CMOS technologies down to 350 mK

Martínez-R. Ismael, O. López-L, D. Ferrusca, M. Velázquez, E. Gutiérrez-D., D. D. Romero, F. J. D. L. Hidalga-W
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Abstract

In this manuscript, we present an experimental setup capable to extract main electrical parameters and thermal effects from semiconductor devices within a range of temperatures from 300 K down to 350 mK. Key aspects of the system such as sample holder design and wire material selection, are discussed. One of the most critical design limitations is the maximum thermal power handling, since at sub-Kelvin temperatures the cooling power is limited by a3He4He fridge. The largest amount of heat transferred into the system comes from the electrical wiring, is reduced by the combined use of Copper and Manganin wires. This way we reach an optimized balance between electrical resistance and heat conduction. Therefore we ensure the DUT reaches the Ultra-Cold Stage (UCS) temperature while the electrical measurements are minimally affected by the electrical resistance. Under this condition the cryogenic system allows a reliable electrical characterization of a 14 nm SOI p-FinFET down to 350 mK.
低至350 mK的先进CMOS技术表征低温系统的开发
在本文中,我们提出了一个实验装置,能够在300 K到350 mK的温度范围内从半导体器件中提取主要电参数和热效应。讨论了系统的关键方面,如样品夹设计和导线材料选择。最关键的设计限制之一是最大热功率处理,因为在亚开尔文温度下,冷却功率受到3he4he冰箱的限制。传输到系统中的最大热量来自电线,通过铜和锰线的组合使用减少了热量。这样我们在电阻和热传导之间达到了最佳的平衡。因此,我们确保DUT达到超冷阶段(UCS)温度,同时电气测量受电阻的影响最小。在这种条件下,低温系统允许14 nm SOI p-FinFET的可靠电特性降低到350 mK。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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