Towards an integrated squeezed light source

Tobias Gehring (Invited author), Ulrich Busk Hoff (Invited author), Timur Iskhakov (Invited author), Ulrik Lund Andersen (Invited author)

Research output: Contribution to journalJournal articleResearchpeer-review

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Abstract

Since it's first generation more than 30 years ago, squeezed light has developed towards a tool for high precision measurements as well as a tool for quantum information tasks like quantum key distribution. Miniaturization of sensors is an active field of research with the prospect of many applications. The precision of optical sensors based on interferometric measurements is often limited by the fundamental shot noise. While shot noise can be reduced by increasing the employed light power, integrated sensors pose limitations on the maximum possible amount due to damaging effects of high intensity as well as power consumption. Bright quadrature squeezed light produced by the optical Kerr effect in a nonlinear medium offers an opportunity to overcome these limitations. Here, we present first steps towards a bright quadrature squeezed light source produced by the optical Kerr effect in race-track resonators in silicon nitride by presenting characterizations of the chip. Using standard fabrication techniques this source will have the potential of seamless integration into on-chip optical sensors.
Original languageEnglish
Article number102490D
JournalProceedings of SPIE, the International Society for Optical Engineering
Volume10249
Number of pages8
ISSN0277-786X
DOIs
Publication statusPublished - 2017

Keywords

  • Optics
  • Quantum optics
  • Integrated photonics
  • Squeezed light
  • Silicon-nitride

Cite this

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title = "Towards an integrated squeezed light source",
abstract = "Since it's first generation more than 30 years ago, squeezed light has developed towards a tool for high precision measurements as well as a tool for quantum information tasks like quantum key distribution. Miniaturization of sensors is an active field of research with the prospect of many applications. The precision of optical sensors based on interferometric measurements is often limited by the fundamental shot noise. While shot noise can be reduced by increasing the employed light power, integrated sensors pose limitations on the maximum possible amount due to damaging effects of high intensity as well as power consumption. Bright quadrature squeezed light produced by the optical Kerr effect in a nonlinear medium offers an opportunity to overcome these limitations. Here, we present first steps towards a bright quadrature squeezed light source produced by the optical Kerr effect in race-track resonators in silicon nitride by presenting characterizations of the chip. Using standard fabrication techniques this source will have the potential of seamless integration into on-chip optical sensors.",
keywords = "Optics, Quantum optics, Integrated photonics, Squeezed light, Silicon-nitride",
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Towards an integrated squeezed light source. / Gehring, Tobias (Invited author); Hoff, Ulrich Busk (Invited author); Iskhakov, Timur (Invited author); Andersen, Ulrik Lund (Invited author).

In: Proceedings of SPIE, the International Society for Optical Engineering, Vol. 10249, 102490D, 2017.

Research output: Contribution to journalJournal articleResearchpeer-review

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T1 - Towards an integrated squeezed light source

AU - Gehring, Tobias

AU - Hoff, Ulrich Busk

AU - Iskhakov, Timur

AU - Andersen, Ulrik Lund

PY - 2017

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N2 - Since it's first generation more than 30 years ago, squeezed light has developed towards a tool for high precision measurements as well as a tool for quantum information tasks like quantum key distribution. Miniaturization of sensors is an active field of research with the prospect of many applications. The precision of optical sensors based on interferometric measurements is often limited by the fundamental shot noise. While shot noise can be reduced by increasing the employed light power, integrated sensors pose limitations on the maximum possible amount due to damaging effects of high intensity as well as power consumption. Bright quadrature squeezed light produced by the optical Kerr effect in a nonlinear medium offers an opportunity to overcome these limitations. Here, we present first steps towards a bright quadrature squeezed light source produced by the optical Kerr effect in race-track resonators in silicon nitride by presenting characterizations of the chip. Using standard fabrication techniques this source will have the potential of seamless integration into on-chip optical sensors.

AB - Since it's first generation more than 30 years ago, squeezed light has developed towards a tool for high precision measurements as well as a tool for quantum information tasks like quantum key distribution. Miniaturization of sensors is an active field of research with the prospect of many applications. The precision of optical sensors based on interferometric measurements is often limited by the fundamental shot noise. While shot noise can be reduced by increasing the employed light power, integrated sensors pose limitations on the maximum possible amount due to damaging effects of high intensity as well as power consumption. Bright quadrature squeezed light produced by the optical Kerr effect in a nonlinear medium offers an opportunity to overcome these limitations. Here, we present first steps towards a bright quadrature squeezed light source produced by the optical Kerr effect in race-track resonators in silicon nitride by presenting characterizations of the chip. Using standard fabrication techniques this source will have the potential of seamless integration into on-chip optical sensors.

KW - Optics

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KW - Silicon-nitride

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