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Low-loss all-optical ns-switching for scalable quantum photonic links

Research output: Contribution to conference › Poster › Research

Standard

Low-loss all-optical ns-switching for scalable quantum photonic links. / Balauroiu, Mircea; Ruf, Fabian; Volet, Nicolas et al.
2021. Poster session presented at Photonic Links for Quantum Technology Platforms.

Research output: Contribution to conference › Poster › Research

Harvard

Balauroiu, M, Ruf, F, Volet, N & Heck, M 2021, 'Low-loss all-optical ns-switching for scalable quantum photonic links', Photonic Links for Quantum Technology Platforms, 31/05/2021 - 03/06/2021.

APA

Balauroiu, M., Ruf, F., Volet, N., & Heck, M. (2021). Low-loss all-optical ns-switching for scalable quantum photonic links. Poster session presented at Photonic Links for Quantum Technology Platforms.

CBE

Balauroiu M, Ruf F, Volet N, Heck M. 2021. Low-loss all-optical ns-switching for scalable quantum photonic links. Poster session presented at Photonic Links for Quantum Technology Platforms.

MLA

Balauroiu, Mircea et al. Low-loss all-optical ns-switching for scalable quantum photonic links. Photonic Links for Quantum Technology Platforms, 31 May 2021, Poster, 2021.

Vancouver

Balauroiu M, Ruf F, Volet N, Heck M. Low-loss all-optical ns-switching for scalable quantum photonic links. 2021. Poster session presented at Photonic Links for Quantum Technology Platforms.

Author

Balauroiu, Mircea ; Ruf, Fabian ; Volet, Nicolas et al. / Low-loss all-optical ns-switching for scalable quantum photonic links. Poster session presented at Photonic Links for Quantum Technology Platforms.

Bibtex

@conference{2f7782072fed4f7bbaa17c77538c70af,
title = "Low-loss all-optical ns-switching for scalable quantum photonic links",
abstract = "Quantum information processing is set to play a large role in future communication technology. Promising realizations for long-distance quantum communication are based on photons. Due to the prospect of moving them out of the lab and toward scalable real-world applications, photonic integrated circuits (PICs) have attracted significant attention. Mature foundry-based PIC platforms based on silicon and silicon nitride have the potential to be a stepping-stone in this development. Especially for necessary switching and routing of single photons including nanosecond delay lines, achieving ultralow losses is key and switching bandwidths should match the single-photon generation rate, which is typically in the MHz to GHz regime for quantum-dot based sources.All-optical switches based on silicon nitride microring resonators are evaluated for their integration with gigahertz single-photon sources. Requirements for the resonator characteristics and control signal waveform are obtained from the Kerr nonlinear dynamics and travelling-wave simulations, and demonstrate the feasibility for single-photon switching in a mature foundry-based PIC platform.",
author = "Mircea Balauroiu and Fabian Ruf and Nicolas Volet and Martijn Heck",
year = "2021",
month = jun,
day = "2",
language = "English",
note = "Photonic Links for Quantum Technology Platforms : 749. WE-Heraeus-Seminar ; Conference date: 31-05-2021 Through 03-06-2021",
url = "https://www.we-heraeus-stiftung.de/veranstaltungen/seminare/2021/photonic-links-for-quantum-technology-platforms/",

}

RIS

TY - CONF

T1 - Low-loss all-optical ns-switching for scalable quantum photonic links

AU - Balauroiu, Mircea

AU - Ruf, Fabian

AU - Volet, Nicolas

AU - Heck, Martijn

PY - 2021/6/2

Y1 - 2021/6/2

N2 - Quantum information processing is set to play a large role in future communication technology. Promising realizations for long-distance quantum communication are based on photons. Due to the prospect of moving them out of the lab and toward scalable real-world applications, photonic integrated circuits (PICs) have attracted significant attention. Mature foundry-based PIC platforms based on silicon and silicon nitride have the potential to be a stepping-stone in this development. Especially for necessary switching and routing of single photons including nanosecond delay lines, achieving ultralow losses is key and switching bandwidths should match the single-photon generation rate, which is typically in the MHz to GHz regime for quantum-dot based sources.All-optical switches based on silicon nitride microring resonators are evaluated for their integration with gigahertz single-photon sources. Requirements for the resonator characteristics and control signal waveform are obtained from the Kerr nonlinear dynamics and travelling-wave simulations, and demonstrate the feasibility for single-photon switching in a mature foundry-based PIC platform.

AB - Quantum information processing is set to play a large role in future communication technology. Promising realizations for long-distance quantum communication are based on photons. Due to the prospect of moving them out of the lab and toward scalable real-world applications, photonic integrated circuits (PICs) have attracted significant attention. Mature foundry-based PIC platforms based on silicon and silicon nitride have the potential to be a stepping-stone in this development. Especially for necessary switching and routing of single photons including nanosecond delay lines, achieving ultralow losses is key and switching bandwidths should match the single-photon generation rate, which is typically in the MHz to GHz regime for quantum-dot based sources.All-optical switches based on silicon nitride microring resonators are evaluated for their integration with gigahertz single-photon sources. Requirements for the resonator characteristics and control signal waveform are obtained from the Kerr nonlinear dynamics and travelling-wave simulations, and demonstrate the feasibility for single-photon switching in a mature foundry-based PIC platform.

M3 - Poster

T2 - Photonic Links for Quantum Technology Platforms

Y2 - 31 May 2021 through 3 June 2021

ER -