Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides

The realization of a scalable architecture for quantum information processing is a major challenge for quantum science. A promising approach is based on emitters in nanostructures that are coupled by light. Here, we show that erbium dopants can be reproducibly integrated at well-defined lattice site...

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Main Authors: Andreas Gritsch, Lorenz Weiss, Johannes Früh, Stephan Rinner, Andreas Reiserer
Format: Article
Language:English
Published: American Physical Society 2022-10-01
Series:Physical Review X
Online Access:http://doi.org/10.1103/PhysRevX.12.041009
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author Andreas Gritsch
Lorenz Weiss
Johannes Früh
Stephan Rinner
Andreas Reiserer
author_facet Andreas Gritsch
Lorenz Weiss
Johannes Früh
Stephan Rinner
Andreas Reiserer
author_sort Andreas Gritsch
collection DOAJ
description The realization of a scalable architecture for quantum information processing is a major challenge for quantum science. A promising approach is based on emitters in nanostructures that are coupled by light. Here, we show that erbium dopants can be reproducibly integrated at well-defined lattice sites by implantation into pure silicon. We thus achieve a narrow inhomogeneous broadening, less than 1 GHz, strong optical transitions, and an outstanding optical coherence even at temperatures of 8 K, with an upper bound to the homogeneous linewidth of around 10 kHz. Our study thus introduces a promising materials platform for the implementation of on-chip quantum memories, microwave-to-optical conversion, and distributed quantum information processing.
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spelling doaj.art-aac48b0d104f4647aa6c13117998ffc72022-12-22T04:37:06ZengAmerican Physical SocietyPhysical Review X2160-33082022-10-0112404100910.1103/PhysRevX.12.041009Narrow Optical Transitions in Erbium-Implanted Silicon WaveguidesAndreas GritschLorenz WeissJohannes FrühStephan RinnerAndreas ReisererThe realization of a scalable architecture for quantum information processing is a major challenge for quantum science. A promising approach is based on emitters in nanostructures that are coupled by light. Here, we show that erbium dopants can be reproducibly integrated at well-defined lattice sites by implantation into pure silicon. We thus achieve a narrow inhomogeneous broadening, less than 1 GHz, strong optical transitions, and an outstanding optical coherence even at temperatures of 8 K, with an upper bound to the homogeneous linewidth of around 10 kHz. Our study thus introduces a promising materials platform for the implementation of on-chip quantum memories, microwave-to-optical conversion, and distributed quantum information processing.http://doi.org/10.1103/PhysRevX.12.041009
spellingShingle Andreas Gritsch
Lorenz Weiss
Johannes Früh
Stephan Rinner
Andreas Reiserer
Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
Physical Review X
title Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
title_full Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
title_fullStr Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
title_full_unstemmed Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
title_short Narrow Optical Transitions in Erbium-Implanted Silicon Waveguides
title_sort narrow optical transitions in erbium implanted silicon waveguides
url http://doi.org/10.1103/PhysRevX.12.041009
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AT lorenzweiss narrowopticaltransitionsinerbiumimplantedsiliconwaveguides
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AT stephanrinner narrowopticaltransitionsinerbiumimplantedsiliconwaveguides
AT andreasreiserer narrowopticaltransitionsinerbiumimplantedsiliconwaveguides