Performance Analysis of Quantum Key Distribution B92 Protocol Using Qiskit

Quantum Key Distribution is a cornerstone of secure communication, utilizing quantum mechanics to achieve unparalleled security. This study evaluates the performance of the B92 protocol, a simplified scheme using non-orthogonal states, through simulation with Python3 and the Qiskit library. The research focuses on the variability of key lengths and the ability of the protocol to detect eavesdropping attempts. Results show an average key length of 14.3 bits per 100 transmitted qubits, with variability ranging from 3 to 29 bits. Detection accuracy improves significantly with sample size, achieving 95% accuracy with a sample size of 5 and 100% with a sample size of 10. These findings highlight the trade-off between key length and detection reliability, emphasizing the importance of optimization. While simulations confirm the protocol’s robustness, further studies under real-world conditions are essential. This work advances the understanding of quantum cryptographic systems and lays the foundation for secure quantum communication.

Authors

Publication Details

Journal
Jurnal Ilmiah Merpati (Menara Penelitian Akademika Teknologi Informasi)
Published
2024-12-31
DOI
https://doi.org/10.24843/jim.2024.v12.i03.p05
Primary Topic
Molecular Communication and Nanonetworks
Type
article
Field-Weighted Citation Impact
0.00
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article

Performance Analysis of Quantum Key Distribution B92 Protocol Using Qiskit

Eko Fajar Cahyadi, Cahya Damarjati, Eko Prasetyo, Muhammad Nazih Mahmudi
Jurnal Ilmiah Merpati (Menara Penelitian Akademika Teknologi Informasi)
Molecular Communication and Nanonetworks
article

Performance Analysis of Quantum Key Distribution B92 Protocol Using Qiskit

Eko Fajar Cahyadi, Cahya Damarjati, Eko Prasetyo, Muhammad Nazih Mahmudi
article en

Abstract

Quantum Key Distribution is a cornerstone of secure communication, utilizing quantum mechanics to achieve unparalleled security. This study evaluates the performance of the B92 protocol, a simplified scheme using non-orthogonal states, through simulation with Python3 and the Qiskit library. The research focuses on the variability of key lengths and the ability of the protocol to detect eavesdropping attempts. Results show an average key length of 14.3 bits per 100 transmitted qubits, with variability ranging from 3 to 29 bits. Detection accuracy improves significantly with sample size, achieving 95% accuracy with a sample size of 5 and 100% with a sample size of 10. These findings highlight the trade-off between key length and detection reliability, emphasizing the importance of optimization. While simulations confirm the protocol’s robustness, further studies under real-world conditions are essential. This work advances the understanding of quantum cryptographic systems and lays the foundation for secure quantum communication.

Jurnal Ilmiah Merpati (Menara Penelitian Akademika Teknologi Informasi)Vol. 12(3)
Openalex Percentile: Top 76%
Molecular Communication and Nanonetworks
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