Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Conference on Sustainable Communication Networks and Application (ICSCNA)

Simulation and Analysis of Quantum Circuit-based Encryption Schemes for Secure Communication

M. J. Jeyasheela Rakkini, CH Hussaian Basha, S.Sangeetha, Anusuri Krishna Veni, S Sumathi, S. Thivaharan

Published Oct 15, 2025• 0 citations
Publisher
DOI
10.1109/icscn67106.2025.11308485

Related papers

Quantum Fourier Transformation and Clifford Gate-Driven Secure Communication Model for Smart Grid Environments

Pooja Rani, Ashutosh Kumar Singh, Anshu Parashar +1 more

The intermittent communication of power usage information in smart grids (SGs) is highly susceptible to potential cyberattacks, which is protected by classical public-key cryptosystems. However, recent advancements in the field of quantum computing have rendered these cryptosystems trivially insecure, triggering the immediate requirement for a highly resilient data communication scheme. This paper addresses the above-mentioned issue by designing a Quantum Encryption and Quantum Fourier Transformation (QFT) based secure data communication and aggregation model (QC-EAM) for SG environments. QC-EAM enables the power consumption data of the users to be encrypted using truly random encryption keys, ensuring unconditional security, while group homomorphism of Clifford Gates is utilized to achieve homomorphic evaluation of the encrypted quantum states. Moreover, a quantum-based data aggregation circuit is developed that performs QFT over the encrypted quantum states, yielding a secure and aggregated state. Furthermore, entanglement swaps-based quantum networking is considered as an enabling infrastructure for the proposed scenario, ensuring preservation of highly susceptible quantum states. The experimental evaluation of QC-EAM is achieved through classical computer-based simulations and tested on actual quantum system, provisioned through the IBM Qiskit platform. Statistical measurements of quantum circuits yield significantly accurate results, proving the validity of QC-EAM. Moreover, a thorough security analysis is also provided that confirms the perfect security achieved through maximally mixed states.

IEEE Transactions on Dependable and Secure Computing•Dec 3, 2025•0 citations

Design and Analysis of Secure Quantum Communication Schemes

Ri‐Gui Zhou, Xiaoxue Zhang, Lin-Tao Du

Springer eBooks•Jan 1, 2024•0 citations

Exploration of Quantum Cryptography Techniques for Enhancing Communication Security

Taranjeet Kaur, Gaurav Bathla

International Conference on Innovation & Growth in Next-Gen Intelligent Technology & Engineering (IGNITE)•Jun 1, 2026•0 citations

Integrating Quantum Circuits for Enhanced Security of Symmetric Encryption Algorithms

Washington Velásquez, Manuel S. Alvarez‐Alvarado

This paper examines the integration of the BB84 quantum key distribution protocol with quantum circuits and its implications for enhancing the security of symmetric encryption algorithms, including XOR, AES, Blowfish, and Salsa20. The BB84 protocol leverages the principles of quantum mechanics to enable secure key exchanges, ensuring that any attempt at eavesdropping is detectable due to the inherent properties of quantum information. This work emphasizes the potential for developing a more secure communication framework by integrating the resilient security features of BB84 with conventional symmetric encryption methods. The analysis highlights the potential of quantum key distribution to enhance the effectiveness of traditional encryption algorithms, thereby facilitating the development of advanced security solutions in the rapidly evolving digital communication environment.

IEEE Colombian Caribbean Conference (C3)•Sep 17, 2025•1 citation

A quantum authenticated encryption scheme

Xin Lü, Zhi Ma, Dengguo Feng

Privacy and authenticity are two main tasks for secure communication. In this paper, a quantum authenticated encryption scheme is proposed. This scheme is devised to encrypt and authenticate classical information using quantum states. We assume that Alice and Bob share a classical bits string y as their private key. Alice generates quantum cipher text and authentication tag using her secret key. Bob can decrypt and verify the authenticity of the received message. Security analysis shows that the proposed protocol is a computationally secure encryption and statistically secure authentication scheme.

International Conference on Signal Processing•Jun 28, 2005•3 citations

Computational Security of Quantum Encryption

Gorjan Alagic, Anne Broadbent, Bill Fefferman +3 more

arXiv:1602.01441•Lecture notes in computer science•Jan 1, 2016•33 citations
The intermittent communication of power usage information in smart grids (SGs) is highly susceptible to potential cyberattacks, which is protected by classical public-key cryptosystems. However, recent advancements in the field of quantum computing have rendered these cryptosystems trivially insecure, triggering the immediate requirement for a highly resilient data communication scheme. This paper addresses the above-mentioned issue by designing a Quantum Encryption and Quantum Fourier Transformation (QFT) based secure data communication and aggregation model (QC-EAM) for SG environments. QC-EAM enables the power consumption data of the users to be encrypted using truly random encryption keys, ensuring unconditional security, while group homomorphism of Clifford Gates is utilized to achieve homomorphic evaluation of the encrypted quantum states. Moreover, a quantum-based data aggregation circuit is developed that performs QFT over the encrypted quantum states, yielding a secure and aggregated state. Furthermore, entanglement swaps-based quantum networking is considered as an enabling infrastructure for the proposed scenario, ensuring preservation of highly susceptible quantum states. The experimental evaluation of QC-EAM is achieved through classical computer-based simulations and tested on actual quantum system, provisioned through the IBM Qiskit platform. Statistical measurements of quantum circuits yield significantly accurate results, proving the validity of QC-EAM. Moreover, a thorough security analysis is also provided that confirms the perfect security achieved through maximally mixed states.
This paper examines the integration of the BB84 quantum key distribution protocol with quantum circuits and its implications for enhancing the security of symmetric encryption algorithms, including XOR, AES, Blowfish, and Salsa20. The BB84 protocol leverages the principles of quantum mechanics to enable secure key exchanges, ensuring that any attempt at eavesdropping is detectable due to the inherent properties of quantum information. This work emphasizes the potential for developing a more secure communication framework by integrating the resilient security features of BB84 with conventional symmetric encryption methods. The analysis highlights the potential of quantum key distribution to enhance the effectiveness of traditional encryption algorithms, thereby facilitating the development of advanced security solutions in the rapidly evolving digital communication environment.
Privacy and authenticity are two main tasks for secure communication. In this paper, a quantum authenticated encryption scheme is proposed. This scheme is devised to encrypt and authenticate classical information using quantum states. We assume that Alice and Bob share a classical bits string y as their private key. Alice generates quantum cipher text and authentication tag using her secret key. Bob can decrypt and verify the authenticity of the received message. Security analysis shows that the proposed protocol is a computationally secure encryption and statistically secure authentication scheme.