Ponraj Vijayan, R. Joos, Marco Werner, Jakob Hirlinger-Alexander, Matthias Seibold, Sergej Vollmer, R. Sittig, S. Bauer, Fiona Braun, S. Portalupi, M. Jetter, P. Michler
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引用次数: 0
摘要
目前,基于硅绝缘体平台的光子集成电路可在同一芯片上实现光学和电子光学元件的高密度集成。量子光子集成电路也能实现这种高复杂性,在硅芯片上利用非线性过程产生量子光。然而,这些固有的概率光发射过程对最终实现可扩展性提出了挑战。在此,一种有趣的解决方案是采用基于 III-V 平台的按需量子光源,但直接在硅片上生长这种光源非常复杂。在本文中,我们展示了通过在晶圆键合砷化镓/硅模板上生长,在硅上集成砷化镓量子点的过程。为了确保在电信 C 波段(∼1550 nm)的发射,我们采用了变质缓冲层方法。我们的研究表明,沉积的单量子点与直接生长在成熟的砷化镓平台上的量子点性能相似。我们的研究结果表明,按需电信发射器可以直接有效地集成到硅上,而不会影响平台的性能。
Growth of telecom C-band In(Ga)As quantum dots for silicon quantum photonics
Photonic integrated circuits based on the silicon-on-insulator platform currently allow high-density integration of optical and electro-optical components on the same chip. This high complexity is also transferred to quantum photonic integrated circuits, where non-linear processes are used for the generation of quantum light on the silicon chip. However, these intrinsically probabilistic light emission processes pose challenges to the ultimately achievable scalability. Here, an interesting solution would be employing on-demand sources of quantum light based on III-V platforms, which are nonetheless very complex to grow directly on silicon. In this paper, we show the integration of InAs quantum dots on silicon via the growth on a wafer bonded GaAs/Si template. To ensure emission in the telecom C-band (∼1550 nm), a metamorphic buffer layer approach is utilized. We show that the deposited single quantum dots show similar performance to their counterparts directly grown on the well-established GaAs platform. Our results demonstrate that on-demand telecom emitters can be directly and effectively integrated on silicon, without compromises on the performances of either the platforms