无极化碳化硅和铌酸锂光子的自发参数下转换。

IF 3.9 2区 综合性期刊 Q1 MULTIDISCIPLINARY SCIENCES
Tim F Weiss, Hamed Arianfard, Yang Yang, Alberto Peruzzo
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引用次数: 0

摘要

基于自发参数下转换(SPDC)的光子源目前依赖于材料非线性的人工结构来满足相位匹配条件。这种被称为周期性极点化的技术仅适用于有限数量的材料平台,并引入了额外的制造步骤和错误,这不利于扩大规模。在这里,我们提出了一种器件架构,该架构使SPDC能够在不需要周期性轮询的情况下实现广泛的频率范围。我们提出了4H绝缘体上碳化硅的明确设计和计算,其中SPDC光子产生迄今为止是不可用的,以及薄膜铌酸锂绝缘体上,最先进的量子光子平台。我们的设计,基于模式转换和随后的模态相位匹配SPDC,促进了CMOS兼容平台,并通过消除周期性轮询的要求和相关的额外制造复杂性来简化光子源。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Spontaneous parametric down conversion without poling for silicon carbide and lithium niobate photonics.

Spontaneous parametric down conversion without poling for silicon carbide and lithium niobate photonics.

Spontaneous parametric down conversion without poling for silicon carbide and lithium niobate photonics.

Spontaneous parametric down conversion without poling for silicon carbide and lithium niobate photonics.

State-of-the-art photon sources based on spontaneous parametric down-conversion (SPDC) currently rely on artificial structuring of the material nonlinearity to satisfy phase-matching conditions. This technique, known as periodic poling, is available only in a limited number of material platforms and introduces additional fabrication steps and errors, which are detrimental to up-scaling efforts. Here, we present a device architecture that enables SPDC of a wide range of frequencies without the need for periodic poling. We present explicit designs and calculations for 4H Silicon Carbide on-insulator, in which SPDC photon generation is so far unavailable, and thin-film Lithium Niobate on-insulator, a state-of-the-art quantum photonics platform. Our design, based on mode conversion and subsequent modal phase-matched SPDC, facilitates a CMOS compatible [Formula: see text] platform, and simplifies photon sources by removing the requirement of periodic poling and the associated additional fabrication complexity.

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来源期刊
Scientific Reports
Scientific Reports Natural Science Disciplines-
CiteScore
7.50
自引率
4.30%
发文量
19567
审稿时长
3.9 months
期刊介绍: We publish original research from all areas of the natural sciences, psychology, medicine and engineering. You can learn more about what we publish by browsing our specific scientific subject areas below or explore Scientific Reports by browsing all articles and collections. Scientific Reports has a 2-year impact factor: 4.380 (2021), and is the 6th most-cited journal in the world, with more than 540,000 citations in 2020 (Clarivate Analytics, 2021). •Engineering Engineering covers all aspects of engineering, technology, and applied science. It plays a crucial role in the development of technologies to address some of the world''s biggest challenges, helping to save lives and improve the way we live. •Physical sciences Physical sciences are those academic disciplines that aim to uncover the underlying laws of nature — often written in the language of mathematics. It is a collective term for areas of study including astronomy, chemistry, materials science and physics. •Earth and environmental sciences Earth and environmental sciences cover all aspects of Earth and planetary science and broadly encompass solid Earth processes, surface and atmospheric dynamics, Earth system history, climate and climate change, marine and freshwater systems, and ecology. It also considers the interactions between humans and these systems. •Biological sciences Biological sciences encompass all the divisions of natural sciences examining various aspects of vital processes. The concept includes anatomy, physiology, cell biology, biochemistry and biophysics, and covers all organisms from microorganisms, animals to plants. •Health sciences The health sciences study health, disease and healthcare. This field of study aims to develop knowledge, interventions and technology for use in healthcare to improve the treatment of patients.
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