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Operating Fiber Networks in the Quantum Limit
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abstract
We consider all-optical network evolution from a quantum perspective. We show that a use of optimal quantum receivers allows an estimated $55\%$ decrease in energy consumption of all-optical amplifiers in network configurations that are typical today. We then compare data transmission capacities of quantum receivers with today's technology operating within the boundaries set by Shannon. We find that quantum receiver technology allows for a logarithmic scaling of the system capacity with the baud-rate, while Shannon-type systems are limited by the transmit power. Thus a natural quantum limit of classical data transmission emerges. Based on the above findings we argue for a new approach to optical communication network design, wherein in-line amplifiers are replaced by novel fiber supporting high spectral bandwidth to allow for noiseless data transmission in the quantum limit.
Forward citations
Cited by 2 Pith papers
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Faithful and secure distributed quantum sensing under general-coherent attacks
Distributed quantum phase-estimation protocols with safety thresholds are claimed secure against general-coherent attacks using a LOCC de Finetti theorem, with a proof-of-principle photonic demonstration.
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Joint Communication and Sensing over the Lossy Bosonic Quantum Channel
The joint communication and sensing region of the lossy bosonic channel is the rectangle [0,g(νE)] × [0,(E/2) min |k−k'|²], showing no tradeoff between the two tasks.
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