Quantum secure metrology for network sensing-based applications

Quantum secure metrology protocols harness quantum effects to probe remote systems with enhanced precision and security. Traditional QSM protocols require multi-partite entanglement, which limits its near-term implementation due to technological constraints. This paper proposes a QSM scheme that emp...

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Published in:Scientific reports 2023-07, Vol.13 (1), p.11630-11630, Article 11630
Main Authors: Rahim, Muhammad Talha, Khan, Awais, Khalid, Uman, Rehman, Junaid ur, Jung, Haejoon, Shin, Hyundong
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Khan, Awais
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Rehman, Junaid ur
Jung, Haejoon
Shin, Hyundong
description Quantum secure metrology protocols harness quantum effects to probe remote systems with enhanced precision and security. Traditional QSM protocols require multi-partite entanglement, which limits its near-term implementation due to technological constraints. This paper proposes a QSM scheme that employs Bell pairs to provide unconditional security while offering precision scaling beyond the standard quantum limit. We provide a detailed comparative performance analysis of our proposal under multiple attacks. We found that the employed controlled encoding strategy is far better than the parallel encoding of multi-partite entangled states with regard to the secrecy of the parameter. We also identify and characterize an intrinsic trade-off relationship between the maximum achievable precision and security under the limited availability of resources. The dynamic scalability of the proposed protocol makes it suitable for large-scale network sensing scenarios.
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subjects 639/766/483/1255
639/766/483/481
Humanities and Social Sciences
multidisciplinary
Parameter estimation
Protocol
Resource availability
Science
Science (multidisciplinary)
title Quantum secure metrology for network sensing-based applications
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