-
The problem of learning Boolean linear functions from quantum examples w.r.t. the uniform distribution can be solved on a quantum computer using the Bernstein-Vazirani algorithm. A similar strategy can be applied in the case of noisy quantum training data, as …
arxiv
Matthias C. Caro
2019-02-23T08:20:09Z
置信度 0.78
quant-phcs.LG
-
In this paper, we present an efficient implementation method of physical layer of Y-00 which can support a secure communication and a quantum key distribution (more generally key expansion) by IMDD(intensity modulation/direct detection) or FSK(frequency shift …
arxiv
Osamu Hirota, Kentaro Kato, Masaki Shoma, Tsuyoshi Sasaki Usuda
2003-08-01T09:03:04Z
置信度 0.78
quant-ph
-
Device-independent quantum key distribution protocols allow two honest users to establish a secret key with minimal levels of trust on the provider, as security is proven without any assumption on the inner working of the devices used for the distribution. Unf…
arxiv
Jan Kołodyński, Alejandro Máttar, Paul Skrzypczyk, Erik Woodhead 等
2018-03-19T18:00:23Z
置信度 0.78
quant-ph
-
We propose a method to improve the performance of two entanglement-based continuous-variable quantum key distribution protocols using noiseless linear amplifiers. The two entanglement-based schemes consist of an entanglement distribution protocol with an untru…
arxiv
Yi-Chen Zhang, Zhengyu Li, Christian Weedbrook, Kevin Marshall 等
2015-07-01T09:03:37Z
置信度 0.78
quant-ph
-
Counterfactual quantum key distribution protocols allow two sides to establish a common secret key using an insecure channel and authenticated public communication. As opposed to many other quantum key distribution protocols, part of the quantum state used to …
arxiv
Carlos Navas Merlo, Juan Carlos Garcia-Escartin
2020-11-05T07:41:39Z
置信度 0.78
quant-ph
-
Most Quantum Key Distribution protocols use a two-dimensional basis such as HV polarization as first proposed by Bennett and Brassard in 1984. These protocols are consequently limited to a key generation density of 1 bit per photon. We increase this key densit…
arxiv
T. B. H. Tentrup, W. M. Luiten, R. van der Meer, P. Hooijschuur 等
2018-08-08T15:25:14Z
置信度 0.78
quant-ph
-
The predictions of quantum theory resist generalised noncontextual explanations. In addition to the foundational relevance of this fact, the particular extent to which quantum theory violates noncontextuality limits available quantum advantage in communication…
arxiv
Anubhav Chaturvedi, Máté Farkas, Victoria J Wright
2020-10-12T17:00:07Z
置信度 0.78
quant-ph
-
crossref
Mhlambululi Mafu, Makhamisa Senekane
2018-05-30T12:35:56Z
置信度 0.70
-
crossref
Ivan B. Djordjevic
2025-07-07T12:07:11Z
置信度 0.70
-
crossref
Federico Grasselli
2021-01-04T03:03:22Z
置信度 0.70
-
crossref
Ivan B. Djordjevic
2025-07-07T13:03:30Z
置信度 0.70
-
crossref
Federico Grasselli
2021-01-04T03:03:22Z
置信度 0.70
-
crossref
Federico Grasselli
2021-01-04T03:03:22Z
置信度 0.70
-
crossref
2019-07-03T06:51:12Z
置信度 0.70
-
crossref
Andri Pradana
2022-08-01T05:01:02Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
crossref
Shinil Cho
2022-07-22T16:44:27Z
置信度 0.70
-
crossref
Federico Grasselli
2021-01-04T03:03:22Z
置信度 0.70
-
crossref
P. Gronberg, P. Jonsson
2008-05-13T12:14:45Z
置信度 0.70
-
crossref
2023-10-10T00:07:09Z
置信度 0.70
-
crossref
N. Lotkenhaus
2006-01-18T23:42:54Z
置信度 0.70
-
crossref
2024-07-12T18:13:32Z
置信度 0.70
-
crossref
Gong Zhang
2019-09-10T23:27:56Z
置信度 0.70
-
crossref
2011-08-29T12:11:46Z
置信度 0.70
-
This talk presents innovations in quantum networks, covering QKD and entanglement-based networking architectures, co-existence with classical channels, optimisation strategies, and advanced control for future quantum communication applications. Full-text artic…
crossref
Rui Wang
2026-01-06T15:46:36Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
crossref
Xiaofan Mo
2010-09-13T16:01:20Z
置信度 0.70
-
crossref
Masahiro Takeoka
2024-06-21T05:45:31Z
置信度 0.70
-
crossref
Wei Wen
2018-05-30T12:35:56Z
置信度 0.70
-
crossref
Oleg G. Morozov, Airat J. Sakhabutdinov, Gennady A. Morozov, Il’daris M. Gabdulkhakov
2018-05-30T12:35:56Z
置信度 0.70
-
crossref
Norbert Lütkenhaus
2014-03-03T23:49:37Z
置信度 0.70
-
crossref
Marric Stephens
2025-08-05T17:00:45Z
置信度 0.70
-
A representative long-haul 1,000 km terrestrial quantum key distribution (QKD) deployment over commercial fibre infrastructure has demonstrated the feasibility of extended-range quantum-secure links. However, such systems rely on trusted-node repeaters and leg…
crossref
Nupur Mukherjee
2026-06-11T09:18:51Z
置信度 0.70
-
crossref
Gerd Leuchs
2013-04-09T17:46:53Z
置信度 0.70
-
crossref
G. Buller
2008-05-13T12:14:45Z
置信度 0.70
-
crossref
Stephen Bush
2023-01-25T03:11:03Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
Abstract A quantum conference key agreement (QCKA) protocol based on differential-phase-shift quantum key distribution is presented, which provides a common secret key for secure communication between more than two parties. In the proposed protocol, one party …
crossref
Kyo Inoue, Toshimori Honjo
2024-06-24T16:01:57Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
crossref
Timothy Shengrong Yu
2019-10-02T16:01:21Z
置信度 0.70
-
Vers la distribution quantique de clé indépendante des dispositifs avec des circuits optiques La distribution quantique de clé indépendante du dispositif (DI-QKD) est un nouveau paradigme prometteur pour sécuriser l'envoi de données sensibles. Il s'agit d'un p…
crossref
Corentin Lanore
2026-04-09T08:49:54Z
置信度 0.70
-
crossref
Shawn Prestridge, James Dunham
2017-08-04T13:24:33Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
crossref
Parvendra Kumar
2025-12-27T16:40:11Z
置信度 0.70
-
crossref
Thomas Prévost, Bruno Martin, Olivier Alibart
2025-02-25T06:22:45Z
置信度 0.70
-
crossref
Farid Ablayev, Marat Ablayev
2018-05-30T12:35:56Z
置信度 0.70
-
crossref
Federico Grasselli
2021-01-04T03:03:22Z
置信度 0.70
-
crossref
2022-09-01T05:26:33Z
置信度 0.70
-
crossref
Er'el Granot
2018-05-30T12:35:56Z
置信度 0.70
-
crossref
Nurul T. Islam
2018-10-01T03:24:41Z
置信度 0.70
-
Quantum cryptography is actions to protect transactions through executing the circumstance of quantum physics. Up-to-the-minute cryptography builds security over the primitive ability of fragmenting enormous numbers into relevant primes; however, it features i…
crossref
Bhanu Chander
2021-04-28T08:37:48Z
置信度 0.70
-
Abstract: This manuscript develops a comprehensive academic framework for quantum-secure medical IoT networks by integrating post-quantum cryptography, quantum key distribution, statistical inference, machine learning, data engineering, and governance design w…
crossref
Murali Krishna Pasupuleti
2026-03-28T08:01:36Z
置信度 0.70
-
crossref
Anonymous
2026-06-24T13:23:42Z
置信度 0.70
-
crossref
Jonathan Habif
2017-07-07T20:09:18Z
置信度 0.70
-
crossref
Xoel Sixto Maceiras
2025-11-25T12:07:28Z
置信度 0.70
-
crossref
Bing Qi
2013-04-09T17:47:09Z
置信度 0.70
-
crossref
Miralem Mehic, Stefan Rass, Peppino Fazio, Miroslav Voznak
2022-09-12T13:07:36Z
置信度 0.70
-
crossref
2020-12-22T22:31:21Z
置信度 0.70
-
crossref
Ivan B. Djordjevic
2025-07-07T12:07:01Z
置信度 0.70
-
crossref
2018-05-30T12:35:56Z
置信度 0.70
-
The counter-intuitive features of quantum mechanics make it possible to solve problems and perform tasks that are beyond the abilities of non-quantum (classical) computers and communication devices. The field of quantum information processing studies how we ca…
crossref
Rotem Liss
2022-09-01T01:00:41Z
置信度 0.70
-
crossref
Rodney Van Meter
2014-05-09T03:56:30Z
置信度 0.70
-
Quantum key distribution (QKD) is the first quantum information task to reach the level of mature technology, already fit for commercialization. It aims at the creation of a secret key between authorized partners connected by a quantum channel and a classical …
openalex
Valerio Scarani, H. Bechmann-Pasquinucci, Nicolas J. Cerf, Miloslav Dušek 等
2009-09-29
置信度 0.72
Quantum key distributionKey (lock)PhysicsQuantum cryptographyComputer security
-
There has been much interest in quantum key distribution. Experimentally, quantum key distribution over 150 km of commercial Telecom fibers has been successfully performed. The crucial issue in quantum key distribution is its security. Unfortunately, all recen…
openalex
Hoi‐Kwong Lo, Xiongfeng Ma, Kai Chen
2005-06-16
置信度 0.72
Quantum key distributionEavesdroppingQuantum cryptographyKey (lock)Computer science
-
We prove that the 1984 protocol of Bennett and Brassard (BB84) for quantum key distribution is secure. We first give a key distribution protocol based on entanglement purification, which can be proven secure using methods from Lo and Chau's proof of security f…
openalex
Peter W. Shor, John Preskill
2000-07-10
置信度 0.72
BB84Quantum key distributionQuantum cryptographyProtocol (science)Quantum entanglement
-
How to remove detector side channel attacks has been a notoriously hard problem in quantum cryptography. Here, we propose a simple solution to this problem--measurement-device-independent quantum key distribution (QKD). It not only removes all detector side ch…
openalex
Hoi‐Kwong Lo, Marcos Curty, Bing Qi
2012-03-30
置信度 0.72
Quantum key distributionKey (lock)Quantum cryptographyQuantumComputer science
-
openalex
Sheng‐Kai Liao, Wenqi Cai, Wei-Yue Liu, Liang Zhang 等
2017-08-07
置信度 0.72
Quantum key distributionSatelliteKey (lock)Environmental scienceRemote sensing
-
Quantum key distribution is widely thought to offer unconditional security in communication between two users. Unfortunately, a widely accepted proof of its security in the presence of source, device, and channel noises has been missing. This long-standing pro…
openalex
Hoi-Kwong Lo, H. F. Chau
1999-03-26
置信度 0.72
Quantum key distributionComputer scienceScheme (mathematics)Key (lock)Quantum channel
-
A theoretical quantum key distribution scheme using Einstein-Podolsky-Rosen (EPR) pairs is presented. This scheme is efficient in that it uses all EPR pairs in distributing the key except those chosen for checking eavesdroppers. The high capacity is achieved b…
openalex
Gui‐Lu Long, X. S. Liu
2002-02-01
置信度 0.72
Quantum key distributionKey (lock)Scheme (mathematics)EPR paradoxElectron paramagnetic resonance
-
We propose a decoy-pulse method to overcome the photon-number-splitting attack for Bennett-Brassard 1984 quantum key distribution protocol in the presence of high loss: A legitimate user intentionally and randomly replaces signal pulses by multiphoton pulses (…
openalex
Won-Young Hwang
2003-08-01
置信度 0.72
DecoyQuantum key distributionSIGNAL (programming language)Pulse (music)Key (lock)
-
europepmc
2025
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
crossref
Andrei A. Stepanenko, Mark D. Lyubarov, Maxim A. Gorlach
2020-12-14T18:07:43Z
置信度 0.70
-
crossref
2024-06-10T12:48:11Z
置信度 0.70
-
europepmc
2025
置信度 0.80
-
crossref
Hiu Yung Wong
2025-03-27T05:57:01Z
置信度 0.70
-
crossref
Fasya Khuzaimah, Heru Sukamto, Agus Purwanto
2018-04-15T21:31:49Z
置信度 0.70
-
crossref
Chui-Ping Yang
2008-02-09T12:42:17Z
置信度 0.70
-
crossref
F De Zela
2005-11-01T04:14:23Z
置信度 0.70
-
A method, termed controlled injection, is proposed for compiling three-qubit controlled gates within the non-Abelian Fibonacci anyon model. Building on single-qubit compilation techniques with three Fibonacci anyons, the approach showcases enhanced accuracy an…
crossref
Abdellah Tounsi, Nacer Eddine Belaloui, Mohamed Messaoud Louamri, Achour Benslama 等
2024-07-01T12:07:40Z
置信度 0.70
-
crossref
Tanay Roy
2023-09-01T02:32:09Z
置信度 0.70
-
crossref
Grace Wagner, Daniel Baxter
2024-08-08T02:37:39Z
置信度 0.70
-
crossref
Irina Heinz, Guido Burkard
2021-07-20T15:27:13Z
置信度 0.70
-
crossref
Tushya Kalpada, Aayush Vijayvargia, Ezra Day-Roberts, Onur Erten
2026-03-11T17:18:02Z
置信度 0.70
-
crossref
Katsumi Aoyagi, Yasuhiro Hatsugai, Tohru Kawarabayashi
2025-03-11T01:01:12Z
置信度 0.70
-
crossref
Grace Wagner
2024-02-25T03:09:08Z
置信度 0.70
-
crossref
Ö. Özcan
2007-04-27T22:06:19Z
置信度 0.70
-
crossref
Charlie Veihmeyer
2024-08-08T02:40:09Z
置信度 0.70
-
Our protocols are constantly evolving and old versions will be deleted. The documents here are not intended to be cited in publications
crossref
dakota betz
2025-06-11T21:45:16Z
置信度 0.70
-
crossref
Alexander Novara, Sami Lewis, Daniel Bowring
2022-01-08T04:07:08Z
置信度 0.70
-
We propose an effective way for realizing a three quantum logic gates (NTCP gate, NTCP-NOT gate and NTQ-NOT gate) of one qubit simultaneously controlling N target qubits based on the qubit-qubit interaction. We use the superconducting qubits in a cavity QED dr…
crossref
Taoufik Said, Abdelhaq Chouikh, Karima Essammouni, Mohamed Bennai
2021-02-27T02:04:26Z
置信度 0.70
-
crossref
Kester Anyang
2023-11-22T03:24:03Z
置信度 0.70
-
crossref
Noriaki Horiuchi
2013-03-27T06:03:53Z
置信度 0.70
-
crossref
Bibhuti Thapa, Oberon Moran, Duc-Kha Vu, Fatih Ozaydin
2025-12-17T10:51:28Z
置信度 0.70
-
Abstract In the usual Su–Schrieffer–Heeger (SSH) chain, the topology of the energy spectrum is divided into two categories in different parameter regions. Here, the topological and nontopological edge states induced by qubit‐assisted coupling potentials in cir…
crossref
Lu Qi, Yan Xing, Guo‐Li Wang, Shutian Liu 等
2020-06-05T06:56:17Z
置信度 0.70
-
crossref
2026-02-11T08:01:09Z
置信度 0.70
-
Abstract We propose an error correction procedure based on a cellular automaton, the sweep rule, which is applicable to a broad range of codes beyond topological quantum codes. For simplicity, however, we focus on the three-dimensional toric code on the rhombi…
crossref
Michael Vasmer, Dan E. Browne, Aleksander Kubica
2021-01-21T11:03:39Z
置信度 0.70
-
crossref
Peng Xu, Alexander Holm Kiilerich, Ralf Blattmann, Yang Yu 等
2017-07-05T22:08:33Z
置信度 0.70
-
crossref
Maximilian Schlosshauer
2020-04-16T12:23:36Z
置信度 0.70