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Security framework for quantum distance-bounding

delete2026-05-04
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PRE
AI
B
Bogner, Kevin *
A
Aysajan Abidin
D
Dave Singelée
B
Bart Preneel
DOI:10.1007/s11128-026-05182-5delete
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Abstract

Abstract

En 中文
Distance-bounding (DB) protocols let a verifier upper-bound a prover's physical distance by timing rapid challenge-response exchanges. Quantum communication promises simpler DB protocols with stronger security guarantees, yet existing quantum distance-bounding (QDB) proposals are analysed in ad hoc models and, to the best of our knowledge, lack a common game-based treatment of standard fraud attacks. We contribute (i) a reusable security framework for QDB that fixes system and timing assumptions, specifies a quantum-capable adversary model, formalises distance-, mafia-, and terrorist-fraud experiments, and includes a simple i.i.d. depolarizing noise model; and (ii) an application of this framework to a published QDB protocol. For this protocol, we characterise the honest per-round acceptance probability under noise and lift it to the multi-round setting, yielding explicit completeness guarantees as a function of the number of fast rounds, the acceptance threshold, and the noise parameter. For active adversaries, we bound the per-round success probability of distance-fraud attacks and analyse the best known mafia-fraud strategy, deriving corresponding multi-round soundness bounds. We also show that the protocol is inherently insecure against terrorist-fraud in our model. The framework cleanly separates protocol-independent definitions from protocol-specific analysis and can be used to evaluate the existing and future QDB protocols on a common basis.
Keywords:
Quantum distance-bounding
Distance-bounding
Provable security
Quantum cryptography
Quantum communication

Journal

Q
Quantum Information Processing
IF:
2.2
Papers:
275
Citations:
0

Organization

K
ku leuven
Scholars:
7.3K
Papers: 3.1K
Citations: 1
Cited Papers

Cited Papers

Position-Based Quantum Cryptography: Impossibility and Constructions
err2014-01-01
err0
errOAAI
errHarry Buhrman; Nishanth Chandran; Serge Fehr; Ran Gelles; Vipul Goyal; Rafail Ostrovsky; Christian Schaffner
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Towards Quantum Distance Bounding Protocols
err2017-01-01
err0
PREAI
errAbidin,Aysajan; Marin,Eduard; Singelée,Dave; Preneel,Bart
errShare
errSave
Entanglement-Based Mutual Quantum Distance Bounding
err2025-01-01
err0
PREAI
errAbidin,Aysajan; Eldefrawy,Karim; Singelée,Dave
errShare
errSave
errShare
errSave
Practical and provably secure distance-bounding
err2015-06-03
err0
errOAAI
errIoana Boureanu; Aikaterini Mitrokotsa; Serge Vaudenay
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