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Autori principali: Bustamante, Santiago, Rodríguez, Boris A., Agudelo, Elizabeth
Natura: Preprint
Pubblicazione: 2026
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Accesso online:https://arxiv.org/abs/2602.05972
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author Bustamante, Santiago
Rodríguez, Boris A.
Agudelo, Elizabeth
author_facet Bustamante, Santiago
Rodríguez, Boris A.
Agudelo, Elizabeth
contents Motivated by the question of the distinguishability of ensembles described by the same compressed density operator, we propose a model for one-way quantum secure direct communication using finite ensembles of shared EPR pairs per bit and a public authenticated classical channel, where the local choice of one of two mutually-unbiased measurement bases is the secret bit. In this model, both the encoding and decoding of classical information in quantum systems are implemented by measurements in either the computational or the Hadamard basis. Using the quantum wiretap channel theory, we study the secure net bit rates and certify information-theoretic security of different implementations of our model when the quantum channel is subjected to BB84-symmetric attacks. Since no local unitary operations need to be performed by the receiver, the proposed model is suitable for real-life implementations of secure direct communication in star network configurations.
format Preprint
id arxiv_https___arxiv_org_abs_2602_05972
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle One-Way Quantum Secure Direct Communication with Choice of Measurement Basis as the Secret
Bustamante, Santiago
Rodríguez, Boris A.
Agudelo, Elizabeth
Quantum Physics
Motivated by the question of the distinguishability of ensembles described by the same compressed density operator, we propose a model for one-way quantum secure direct communication using finite ensembles of shared EPR pairs per bit and a public authenticated classical channel, where the local choice of one of two mutually-unbiased measurement bases is the secret bit. In this model, both the encoding and decoding of classical information in quantum systems are implemented by measurements in either the computational or the Hadamard basis. Using the quantum wiretap channel theory, we study the secure net bit rates and certify information-theoretic security of different implementations of our model when the quantum channel is subjected to BB84-symmetric attacks. Since no local unitary operations need to be performed by the receiver, the proposed model is suitable for real-life implementations of secure direct communication in star network configurations.
title One-Way Quantum Secure Direct Communication with Choice of Measurement Basis as the Secret
topic Quantum Physics
url https://arxiv.org/abs/2602.05972