Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

arXiv:2107.01964 · International Journal of Theoretical Physics

Quantum Key Distribution Based on Orthogonal State Encoding

Hao Shu

Published Dec 8, 2022• 6 citations
arXivHTMLPDF
DOI
10.1007/s10773-022-05257-w

Related papers

Quantum key distribution protocol with subcarrier wave encoding in bases with «non-orthogonal» phase states

Sergey A. Moiseev, K. S. Melnik, L. R. Gilyazov +1 more

Abstract This work demonstrates the feasibility of implementing subcarrier wave quantum key distribution using bases with non-orthogonal phase states. Analytical calculations are presented, highlighting the characteristics of this key distribution method when employing two different approaches for phase state detection. The advantages of the practical implementation and the potential applications of the proposed approach are discussed.

Laser Physics Letters•Aug 1, 2025•4 citations

Novel encoding–decoding procedure for quantum key distribution

Georgi Bebrov

Quantum Information Processing•Sep 1, 2021•3 citations

Entangled state quantum key distribution

Hubel, Fedrizzi, Poppe +2 more

•Jan 1, 2005•0 citations

Quantum Identity Authentication Using Non-Orthogonal State Encoding

Aravind Babu, N. Shanthi

We propose a quantum identity authentication protocol, for quantum key distribution devices that use nonorthogonal state encoding in conjunction with Heisenberg uncertainty principle. The keys for authentication are used only once. The used keys are replaced with new ones. The number of keys sacrificed for the proposed authentication protocol is small and the protocol is found to be resistant to Man in The Middle attack when the number of keys used for authentication is increased. Also, this protocol is compatible with the present quantum key distribution technology.

International Conference on Advances in Computing, Communication, Embedded and Secure Systems (ACCESS)•Sep 2, 2021•2 citations

Towards polarisation-encoded quantum key distribution in optical fibre networks

Sharmini Pillay, Abdul Mirza, Francesco Petruccione

Quantum key distribution – a process that encodes digital information – often utilises fibre optic technologies for commercial applications. Fibre provides the benefit of a dark channel as well as the convenience of independence of a line-of-sight connection between the sender and receiver. In order to implement quantum key distribution protocols utilising polarisation encoding, the birefringence effects of fibre must be compensated for. Birefringence is caused by manufacturing impurities in the fibre or a change in environmental conditions and results in a rotation of the state of polarisation of light as it is propagated through the fibre. With dynamic environmental conditions, the birefringence effects should be monitored with a test signal at regular time intervals so that the polarisation of each photon can be appropriately compensated to its original state. Orthogonal states are compensated simultaneously, but most protocols, such as BB84 and B92, require non-orthogonal basis sets. Instead of using a compensator for each basis, the presented scheme fixes the polarisation controller onto the plane on the Poincaré that passes through both bases, compensating both non-orthogonal bases simultaneously.

South African Journal of Science•Jul 27, 2015•2 citations

State-independent Quantum Key Distribution

Radha Pyari Sandhir

arXiv:1901.01233•Jan 4, 2019•0 citations
We propose a quantum identity authentication protocol, for quantum key distribution devices that use nonorthogonal state encoding in conjunction with Heisenberg uncertainty principle. The keys for authentication are used only once. The used keys are replaced with new ones. The number of keys sacrificed for the proposed authentication protocol is small and the protocol is found to be resistant to Man in The Middle attack when the number of keys used for authentication is increased. Also, this protocol is compatible with the present quantum key distribution technology.
Quantum key distribution – a process that encodes digital information – often utilises fibre optic technologies for commercial applications. Fibre provides the benefit of a dark channel as well as the convenience of independence of a line-of-sight connection between the sender and receiver. In order to implement quantum key distribution protocols utilising polarisation encoding, the birefringence effects of fibre must be compensated for. Birefringence is caused by manufacturing impurities in the fibre or a change in environmental conditions and results in a rotation of the state of polarisation of light as it is propagated through the fibre. With dynamic environmental conditions, the birefringence effects should be monitored with a test signal at regular time intervals so that the polarisation of each photon can be appropriately compensated to its original state. Orthogonal states are compensated simultaneously, but most protocols, such as BB84 and B92, require non-orthogonal basis sets. Instead of using a compensator for each basis, the presented scheme fixes the polarisation controller onto the plane on the Poincaré that passes through both bases, compensating both non-orthogonal bases simultaneously.