Unwanted couplings in NV-center and rubidium quantum memories can amplify retrieved signals past unity while apparent noise stays zero, signaling hidden quantum noise.
QEYSSat 2.0 -- White Paper on Satellite-based Quantum Communication Missions in Canada
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abstract
We present the white paper developed during the QEYSSat 2.0 study, which was undertaken between June 2021 and March 2022. The study objective was to establish a technology road-map for a Canada-wide quantum network enabled by satellites. We survey the state-of-art in quantum communication technologies, identify the main applications and architectures, review the technical readiness levels and technology bottlenecks and identify a future mission scenario. We report the findings of a dedicated one-day workshop that included Canadian stakeholders from government, industry and academia to gather inputs and insights for the applications and technical road-map. We also provide an overview of the Quantum EncrYption and Science Satellite (QEYSSat) mission expected to launch in 2024-2025 and its anticipated outcomes. One of the main outcomes of this study is that developing the main elements for a Canada-wide quantum internet will have the highest level of impact, which includes Canada-wide entanglement distribution and teleportation. We present and analyze a possible future mission ('QEYSSat 2.0') that would enable a long range quantum teleportation across Canada as an important step towards this vision.
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Unwanted couplings can induce amplification in quantum memories despite negligible apparent noise
Unwanted couplings in NV-center and rubidium quantum memories can amplify retrieved signals past unity while apparent noise stays zero, signaling hidden quantum noise.