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Advances in intelligent systems and computing

Analysis of Eavesdropping in QKD with Qutrit Photon States

Supriyo Banerjee, Biswajit Maiti, Banani Saha

Published Jan 1, 2017• 1 citation
Publisher
DOI
10.1007/978-981-10-3409-1_11

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Analysis on the Beam-split Eavesdropping by Eavesdropper with Storage Ability

Focusing on QKD systems based on the weak-coherent pulse photon source and BB84 protocol, puting forward the beam-eavesdropping projects simulating eavesdropper with storage ability--single base-2APD and single base-4APD projects, and obtaining the efficiency of generating keys in the receiver, the efficiency of eavesdropping in the eavesdropper, eavesdropping-information proportion and formula for beam-split proportion.Based on the practical sample with transmission length 10km and average photon number 0.1~0.9,calculate the eavesdropping-information proportion and get 0.35%~5.79%on account of the beam-split proportion 0.2, 0.3, 0.4 and 0.5.Results show that current QKD systems with average photon number 0.1 are safe for the beameavesdropping.

International Workshop on Computer Science and Engineering (WCSE)•Jan 1, 2015•0 citations
Quantum Key Distribution (QKD) provides an innovative approach for secure communication by utilizing the principles of quantum mechanics. Among various QKD protocols, the BB84 protocol remains the most widely studied and implemented due to its simplicity and theoretical security guarantees. However, practical implementations of BB84 are vulnerable to several eavesdropping attacks and channel imperfections. This paper presents a comprehensive study on the detection and analysis of eavesdropping attacks in the BB84 protocol. The work focuses on common attacks such as intercept-resend attack, photon-number splitting attack, Trojan horse attack, and phase-covariant cloning attack. The effect of these attacks on Quantum Bit Error Rate (QBER) is analyzed in detail. Simulation-based observations are discussed to demonstrate how QBER increases under malicious interference. The study further explores statistical methods for detecting eavesdropping and examines practical countermeasures including decoy states, privacy amplification, and error correction techniques. The paper concludes that BB84 remains robust against eavesdropping when proper detection and mitigation mechanisms are employed.
Focusing on QKD systems based on the weak-coherent pulse photon source and BB84 protocol, puting forward the beam-eavesdropping projects simulating eavesdropper with storage ability--single base-2APD and single base-4APD projects, and obtaining the efficiency of generating keys in the receiver, the efficiency of eavesdropping in the eavesdropper, eavesdropping-information proportion and formula for beam-split proportion.Based on the practical sample with transmission length 10km and average photon number 0.1~0.9,calculate the eavesdropping-information proportion and get 0.35%~5.79%on account of the beam-split proportion 0.2, 0.3, 0.4 and 0.5.Results show that current QKD systems with average photon number 0.1 are safe for the beameavesdropping.