The Wonderful World of Designer Ge Quantum Dots

I-Hsiang Wang, P. Hong, K. Peng, Horng-Chih Lin, T. George, Pei-Wen Li
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引用次数: 5

Abstract

Starting with our remarkable discovery of spherical germanium (Ge) quantum dot (QD) formation, we have embarked on an exciting journey of further discovery, all the while maintaining CMOS-compatible processes. We have taken advantage of the many peculiar and symbiotic interactions of Si, Ge and O interstitials to create a novel portfolio of electronic, photonic and quantum computing devices. This paper summarizes several of these completely new and counter-intuitive accomplishments. Using a coordinated combination of lithographic patterning and self-assembly, size-tunable spherical Ge QDs were controllably placed at designated spatial locations within Si-containing layers. We exploited the exquisite control available through the thermal oxidation of Si1-xGex patterned structures in proximity to Si3N4/Si layers. Our so-called "designer" Ge QDs have succeeded in opening up myriad device possibilities, including paired QDs for qubits, single-hole transistors (SHTs) for charge sensing, photodetectors and light-emitters for Si photonics, and junctionless (JL) FETs using standard Si processing.
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设计师葛量子点的奇妙世界
从我们非凡的球形锗(Ge)量子点(QD)形成的发现开始,我们已经踏上了进一步发现的激动人心的旅程,同时保持了cmos兼容的工艺。我们利用Si, Ge和O的许多特殊的共生相互作用来创造一个新的电子,光子和量子计算设备组合。本文总结了这些全新的、反直觉的成就。利用光刻和自组装的协调组合,可调节尺寸的球形锗量子点被可控地放置在含硅层内的指定空间位置。我们利用了通过Si3N4/Si层附近的Si1-xGex图案结构的热氧化提供的精细控制。我们所谓的“设计师”Ge量子点已经成功地开辟了无数器件的可能性,包括用于量子比特的配对量子点,用于电荷传感的单孔晶体管(sht),用于硅光子学的光电探测器和发光体,以及使用标准硅处理的无结场效应管(JL)。
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