1150:
1140:
35:
169:(1992) is a quantum key distribution method that uses entanglement distillation protocols to prepare and transmit nonorthogonal quantum states with unconditional security, even over lossy and noisy channels, by measuring the state on the Z basis and using local filtering and Z basis measurements to ensure the security of the transmission is determined by the number of errors and the number of filter pairs used.
187:(2002) is a simple and efficient quantum key distribution (QKD) method that does not require a basis selection process like the traditional BB84 protocol, has a simpler receiver configuration with fewer detectors, uses efficient sequential pulses in the time domain for high key creation speed, and is robust against photon-number splitting attacks even with weak coherent light.
151:(1984) is a quantum key distribution scheme that allows two parties to securely communicate a private key for use in one-time pad encryption using the quantum property that information gain is only possible at the expense of disturbing the signal if the two states one is trying to distinguish are not orthogonal and an authenticated public classical channel.
211:(2006) is a method of data encryption that uses random polarization rotations by the two authenticated parties, to continuously encrypt data using single photons and can also be used for exchanging keys, with the possibility of multi-photon quantum cryptography and the ability to address man-in-the-middle attacks through modification.
157:(1991) is a quantum cryptography method that uses entangled pairs of photons to generate keys for secure communication, with the ability to detect any attempts at eavesdropping by an external party through the violation of Bell's Theorem and the preservation of perfect correlation between the measurements of the two parties.
199:(2004) is a quantum key distribution protocol that was developed as a more robust version of BB84, especially against photon-number-splitting attacks, for use with attenuated laser pulses in situations where the information is originated by a Poissonian source producing weak pulses and received by an imperfect detector.
181:(1998) is a method of transmitting secure information using quantum cryptography that is more resistant to noise and easier to detect errors in compared to the BB84 protocol, due to its use of a six-state polarization scheme on three orthogonal bases and its ability to tolerate a noisier channel.
193:(2003) is a method used in practical quantum cryptography systems that uses multiple intensity levels at the transmitter's source and monitors bit error rates to detect and prevent photon number splitting attacks, enabling higher secure transmission rates or longer maximum channel lengths.
217:(2009) allows for increased transmission distances between Alice and Bob by using two mutually unbiased bases and introducing a minimum index transmission error rate and quantum bit error rate, which is particularly effective for higher-dimensional photon states.
205:(2005) allows for secure communication between two parties by transmitting a key using weak coherent pulses of light and has advantages of requiring only a random number generator on the client side and being able to transmit key information at a high rate.
223:
is a technology that enables secure communication between two parties by encoding quantum information in high dimensions, such as optical angular momentum modes, and transmitting it over long distances through multicore fibers or free-space
175:
protocol (1996) uses four nonorthogonal quantum states of a weak optical field to encode a cryptographic key bit without the use of photon polarization or entangled photons.
163:(1992) is a quantum key distribution method that uses polarized entangled photon pairs and decoy states to securely transmit non-orthogonal quantum signals.
99:
71:
78:
339:
230:
aims to increase the practicality of QKD by removing certain idealizations and including features that can increase the key rate of the system.
227:
202:
184:
166:
301:
17:
85:
1031:
932:
67:
248:
Sabani, Maria; Savvas, Ilias; Poulakis, Dimitrios; Makris, Georgios (2022). "Quantum Key
Distribution: Basic Protocols and Threats".
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Proceedings of the 26th Pan-Hellenic
Conference on Informatics
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139:. After that, many other protocols have been defined.
554:
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309:
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68:"List of quantum key distribution protocols"
57:introducing citations to additional sources
302:
288:
143:List of quantum key distribution protocols
257:
209:Three-stage quantum cryptography protocol
121:Quantum key distribution (QKD) protocols
820:Continuous-variable quantum information
14:
1167:
127:. The first protocol of that kind was
283:
28:
24:
25:
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1149:
1148:
1139:
1138:
44:relies largely or entirely on a
33:
241:
13:
1:
815:Adiabatic quantum computation
234:
18:Quantum cryptography protocol
866:Topological quantum computer
7:
1144:Quantum information science
311:Quantum information science
10:
1191:
539:quantum gate teleportation
1134:
1077:
1040:
1006:
983:
950:
941:
874:
803:
741:
701:
668:Quantum Fourier transform
613:
564:Post-quantum cryptography
507:Entanglement distillation
480:
389:
317:
131:, introduced in 1984 by
1154:Quantum mechanics topics
849:Quantum machine learning
825:One-way quantum computer
678:Quantum phase estimation
579:Quantum key distribution
512:Monogamy of entanglement
125:quantum key distribution
761:Randomized benchmarking
623:Amplitude amplification
259:10.1145/3575879.3576022
861:Quantum Turing machine
854:quantum neural network
601:Quantum secret sharing
933:Entanglement-assisted
894:quantum convolutional
569:Quantum coin flipping
534:Quantum teleportation
495:entanglement-assisted
325:DiVincenzo's criteria
1175:Quantum cryptography
744:processor benchmarks
673:Quantum optimization
556:Quantum cryptography
367:physical vs. logical
252:. pp. 383–388.
191:Decoy state protocol
53:improve this article
457:Quantum speed limit
352:Quantum programming
347:Quantum information
1106:Forest/Rigetti QCS
842:quantum logic gate
628:Bernstein–Vazirani
615:Quantum algorithms
490:Classical capacity
374:Quantum processors
357:Quantum simulation
179:Six-state protocol
133:Charles H. Bennett
1162:
1161:
1073:
1072:
970:Linear optical QC
751:Quantum supremacy
705:complexity theory
658:Quantum annealing
609:
608:
546:Superdense coding
335:Quantum computing
269:978-1-4503-9854-1
118:
117:
103:
16:(Redirected from
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1141:
948:
947:
878:error correction
807:computing models
773:Relaxation times
663:Quantum counting
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551:
500:quantum capacity
447:No-teleportation
432:No-communication
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993:Neutral atom QC
985:Ultracold atoms
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944:implementations
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837:Quantum circuit
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653:Hidden subgroup
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594:other protocols
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527:quantum network
522:Quantum channel
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422:No-broadcasting
412:Gottesman–Knill
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1022:Spin qubit QC
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830:cluster state
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638:Deutsch–Jozsa
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574:Quantum money
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483:communication
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73:
70: –
69:
65:
64:Find sources:
58:
54:
48:
47:
46:single source
42:This article
40:
36:
31:
30:
27:
19:
1050:Charge qubit
975:KLM protocol
924:
788:
778:
593:
472:Purification
402:Eastin–Knill
249:
243:
228:T12 protocol
203:COW protocol
185:DPS protocol
167:B92 protocol
155:E91 protocol
123:are used in
120:
119:
106:
96:
89:
82:
75:
63:
51:Please help
43:
26:
1081:programming
1060:Phase qubit
965:Circuit QED
437:No-deleting
379:cloud-based
109:August 2024
1121:libquantum
1055:Flux qubit
960:Cavity QED
909:Bacon–Shor
899:stabilizer
427:No-cloning
235:References
79:newspapers
1027:NV center
462:Threshold
442:No-hiding
407:Gleason's
1169:Category
1089:OpenQASM
1065:Transmon
942:Physical
742:Quantum
643:Grover's
417:Holevo's
390:Theorems
340:timeline
330:NISQ era
1079:Quantum
1017:Kane QC
876:Quantum
804:Quantum
733:PostBQP
703:Quantum
688:Simon's
481:Quantum
318:General
93:scholar
1097:IBM QX
1093:Qiskit
1032:NMR QC
1010:-based
914:Steane
885:Codes
683:Shor's
589:SARG04
397:Bell's
266:
224:links.
197:SARG04
95:
88:
81:
74:
66:
919:Toric
362:Qubit
221:HDQKD
173:MSZ96
100:JSTOR
86:books
1111:Cirq
1102:Quil
1008:Spin
904:Shor
584:BB84
517:LOCC
264:ISBN
149:BB84
135:and
129:BB84
72:news
925:gnu
889:CSS
766:XEB
728:QMA
723:QIP
718:EQP
713:BQP
693:VQE
648:HHL
452:PBR
254:doi
55:by
1171::
1116:Q#
262:.
1104:–
1095:–
1091:–
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789:T
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303:e
296:t
289:v
272:.
256::
111:)
107:(
97:·
90:·
83:·
76:·
59:.
49:.
20:)
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