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電子情報通信学会誌

Proof-of-principle Experiment of Quantum Repeaters with All Photonics : First Big Step towards a ‘Quantum InternetC as the Holy Grail of Information-processing Networks

Norio Sakaida

Published Jun 1, 2019• 0 citations
OpenAlex

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First Proof-of-principle Experiment of Quantum Repeaters with All Photonics--Major Step towards a Quantum Internet as the Holy Grail of Information-processing Networks

NTT technical review•Jul 1, 2019•0 citations

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The Japan Society of Applied Physics•Jul 10, 2019•0 citations

Chaotic quantum cryptography: The ultimate for network security

Stamatios V. Kartalopoulos

As the sophistication of intruders' increases, so does the incidents of information integrity breaches and network attacks. In response, very complex cryptographic processes have started being employed, such as chaos theory and quantum theory, in an effort to create the “holy grail” of cryptographic systems and network security. Quantum theory defines the non-classical qubit, which is the superposition of quantum states having no classical analog. It is also based on the “no cloning” and “no copying” theorem and on the Heisenberg's uncertainty. The quanto-mechanical properties of photons and the quantum mechanics provide a superb platform for communications security and particularly in secure optical communication networks, known as quantum cryptography and quantum networks, respectively. Chaos is based on the particular behavior of certain non-linear functions, which for a minute change of parameters produce a huge and unstable output, known as the “chaotic regime”. However, this chaos can be reproducible, which makes it attractive to secure communications. Thus, the combined Chaos and Quantum theories play a synergistic role in the quest for the “holy grail” in communications security. In this talk we explain with simple examples quantum cryptography and protocols, as well as chaos and chaotic processes. We also describe the synergy of chaos and quantum theories as well as the increased efficiency and speed of the quantum key establishment.

International Conference on Data Communication Networking•Jul 26, 2010•2 citations

Photonic Clients for the Quantum Internet

J. van Dam

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Strings versus ESP

David Fisher

Your report about the recent conference at Cambridge on "rational perspectives on the paranormal" (May p5) discusses attempts by parapsychologists to reproduce paranormal phenomena under controlled laboratory conditions. You then say that "positive results are not unusual, but are rarely repeatable". Surely any repeatable experiments in this field would be regarded as a "holy grail" and pursued relentlessly? The results would no longer be rare by this time, and anybody at all – including sceptics – could reproduce them at will.

Physics World•Jul 1, 2000•0 citations

Atom-Photon Entanglement in a Cavity

Tatjana Wilk, S. C. Webster, Axel Kuhn +1 more

Creating entanglement between distant nodes of a quantum network is a major task in quantum information processing. Deterministic creation of atom-photon entanglement would be a big step towards this aim since photons can travel large distances without decoherence. Entanglement swapping between two such atom-photon pairs should be a feasible way to entangle two distant atoms and thus realise a quantum repeater. Here, we show a way to achieve entanglement in a strongly coupled atom-cavity system.

Conference on Lasers and Electro-Optics Europe & European Quantum Electronics Conference (CLEO/Europe-EQEC)•Jun 1, 2007•0 citations
As the sophistication of intruders' increases, so does the incidents of information integrity breaches and network attacks. In response, very complex cryptographic processes have started being employed, such as chaos theory and quantum theory, in an effort to create the “holy grail” of cryptographic systems and network security. Quantum theory defines the non-classical qubit, which is the superposition of quantum states having no classical analog. It is also based on the “no cloning” and “no copying” theorem and on the Heisenberg's uncertainty. The quanto-mechanical properties of photons and the quantum mechanics provide a superb platform for communications security and particularly in secure optical communication networks, known as quantum cryptography and quantum networks, respectively. Chaos is based on the particular behavior of certain non-linear functions, which for a minute change of parameters produce a huge and unstable output, known as the “chaotic regime”. However, this chaos can be reproducible, which makes it attractive to secure communications. Thus, the combined Chaos and Quantum theories play a synergistic role in the quest for the “holy grail” in communications security. In this talk we explain with simple examples quantum cryptography and protocols, as well as chaos and chaotic processes. We also describe the synergy of chaos and quantum theories as well as the increased efficiency and speed of the quantum key establishment.
Your report about the recent conference at Cambridge on "rational perspectives on the paranormal" (May p5) discusses attempts by parapsychologists to reproduce paranormal phenomena under controlled laboratory conditions. You then say that "positive results are not unusual, but are rarely repeatable". Surely any repeatable experiments in this field would be regarded as a "holy grail" and pursued relentlessly? The results would no longer be rare by this time, and anybody at all – including sceptics – could reproduce them at will.