Interfacing picosecond and nanosecond quantum light pulses
arXiv:2211.05112 · doi:10.1038/s41566-023-01214-z
Abstract
Light is a key information carrier, enabling worldwide high-speed data transmission through a telecommunication fibre network. This information-carrying capacity can be extended to transmitting quantum information (QI) by encoding it in single photons -- flying qubits. However, various QI-processing platforms operate at vastly different timescales. QI-processing units in atomic media, operating within nanosecond to microsecond timescales, and high-speed quantum communication, at picosecond timescales, cannot be efficiently linked due to orders of magnitude mismatch in the timescales or, correspondingly, spectral linewidths. In this work, we develop a large-aperture time lens using complex high-bandwidth electro-optic phase modulation to bridge this gap. We demonstrate coherent, deterministic spectral bandwidth compression of quantum light pulses by more than two orders of magnitude with high efficiency. It will facilitate large-scale hybrid QI-processing by linking the ultrafast and quasi-continuous-wave experimental platforms, which until now, to a large extent, have been developing independently.
arXiv comment8 pages + 3 supplement, 5 + 2 figures, version accepted for publication
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- Structured Light Modal Interface via Liquid-Crystal Planar Optics
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- On the role of chirping in pulsed single photon spectroscopy
- Erecting time telescope for photonic quantum networks
- Interferometric sorting of temporal Hermite-Gauss modes via temporal Gouy phase
- Aberration-optimized electro-optic time lens with a tunable aperture
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- Telecom-Integrated Photonic Memory Operating Near the Mechanical Ground State
- Temporal cavities as temporal mode filters for frequency combs
- Toward quantum interconnects featuring nanometer-to-picometer bandwidth compression and THz-range quantum frequency conversion