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IEEE/LEOS Summer Topical Meetings

Quantum Communication in standard optical fibers

Nicolas Gisin

Published Sep 22, 2006• 0 citations
Publisher

Abstract

Quantum cryptography, quantum teleportation and experiments on entanglement is reviewed with special emphasize on the state of the art and the challenges of the 5-10 next years
DOI
10.1109/leosst.2006.1693950

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Quantum communication is an implementation based on quantum mechanics. This includes quantum entanglement theory, quantum cryptography, quantum teleportation, quantum repeater, and quantum storage. All components of quantum communication except entanglement are reviewed in this paper. Besides, this paper discusses three different media, land, underwater and space, in which quantum communication can be operated. Quantum communication on land and underwater uses optical fibers, and quantum communication in space uses satellites. In this paper, two experiments for each of these three media are carried out to illustrate how quantum communication is established on these three media. Thus, quantum communication and its three media are reviewed in this paper.
Quantum-communications technologies, especially involving teleportation, will play an increasingly important role in both the domestic and defense sectors because of the promise for improved security, distributed quantum computing, and quantum sensing. This paper presents a review of this emerging field, summarizing key protocols as well as some representative quantum teleportation experiments conducted both in the laboratory and in the field. Briefly, in recent years, quantum teleportation has been demonstrated in both optical-fiber networks and in long-distance free-space channels, using entanglement on photonic chips as well as between photonic and atom/ion or solid-state qubits.