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

Quantum Signature and Identity Authentication Scheme Based on Quantum Public Key

Yun‐Long Wu, jinqing Li, Xiaoqiang Di, Xusheng Li, Shi Qiu

Published Jan 1, 2024• 1 citation
Publisher
DOI
10.2139/ssrn.4955694

Related papers

Authenticated conference key agreement based on identity

Zecheng Wang

In order to ensure authenticity of the information for conference key negotiation, the information which each party sends should be authenticated. Digital signature and share secret are two methods for authentication. Identity-based public key cryptosystems from the Weil pairing on elliptic curve are introduced. Two authenticated conference key agreement protocols are designed using identitybased signature scheme and identity-based Diffie-Hellman shared key. The protocols are secure and efficient. They can be applied to all kinds of environment in which multi-parties negotiate session keys.

Jisuanji gongcheng yu sheji•Jan 1, 2004•0 citations

One-way quantum identity authentication based on public key

Xinglan Zhang

中国科学通报：英文版•Jun 1, 2009•35 citations

Quantum gate encryption and quantum signature scheme based on public identity information

Y. C. Xu, jinqing Li, Xiaoqiang Di +1 more

Quantum Information Processing•Feb 18, 2026•0 citations

Certificateless Concurrent Signature Scheme

Zhenjie Huang, Xuanzhi Lin, Rufen Huang

Certificateless public key cryptography was introduced to remove the use of certificate to ensure the authentication of the user's public key in the traditional certificate-based public key cryptography and overcome he key escrow problem in the identity-based public key cryptography. Concurrent signatures were introduced as an alternative approach to solving the problem of fair exchange of signatures. Combining the concept of certificateless cryptography with the concept of concurrent signature, in this paper, we present a notion of certificateless concurrent signature with a formal security model and propose a provably secure scheme assuming the hardness of computational Diffie-Hellman Problem.

International Conference for Young Computer Scientists•Nov 1, 2008•2 citations

A post-quantum certificateless blind signature scheme for secure authentication in edge-enabled industrial internet of things

Dongfang Li, Lin Zhou, Weizhi Wang +2 more

The Edge-enabled Industrial Internet of Things (Edge-IIoT) has emerged as a fundamental architecture for intelligent manufacturing by enabling low-latency data collection, processing, and communication among distributed industrial devices. However, the open and distributed nature of Edge-IIoT introduces significant challenges to secure data authentication and privacy preservation. Meanwhile, conventional public key infrastructure incurs considerable certificate management overhead and is not well suited for future industrial environments in the presence of quantum computing. To address these challenges, this paper proposes a lattice-based certificateless blind signature scheme for secure and privacy-preserving authentication in Edge-IIoT. The proposed scheme integrates the Dilithium signature algorithm with certificateless public key cryptography and blind signature techniques to simultaneously provide anonymous authentication, data integrity, conditional identity revocation, and post-quantum security while eliminating the certificate management overhead associated with traditional public key infrastructures. Furthermore, the proposed construction improves existing lattice-based certificateless blind signature schemes by addressing identified security weaknesses and strengthening resistance against forgery attacks, while effectively avoiding the key escrow problem inherent in identity-based cryptography. The correctness, blindness, and unforgeability of the proposed scheme are formally proved in the random oracle model based on the hardness of the Module Short Integer Solution (MSIS) problem. In addition, theoretical performance analysis demonstrates that the proposed scheme incurs acceptable computational, communication, and storage overhead while providing comprehensive security properties, including certificateless operation, identity anonymity, no key escrow, conditional revocation, and post-quantum security. Overall, the proposed scheme achieves an effective balance between security, privacy preservation, and efficiency, which exhibits favorable theoretical security-efficiency trade-offs for secure industrial data authentication in resource-constrained Edge-IIoT environments. Practical implementation is left for future investigation.

Journal of King Saud University - Computer and Information Sciences•Oct 28, 2026•0 citations

Identity-based quantum signature scheme with strong security

Xiangjun Xin, Zhuo Wang, Qinglan Yang

Optical and Quantum Electronics•Nov 15, 2019•7 citations
In order to ensure authenticity of the information for conference key negotiation, the information which each party sends should be authenticated. Digital signature and share secret are two methods for authentication. Identity-based public key cryptosystems from the Weil pairing on elliptic curve are introduced. Two authenticated conference key agreement protocols are designed using identitybased signature scheme and identity-based Diffie-Hellman shared key. The protocols are secure and efficient. They can be applied to all kinds of environment in which multi-parties negotiate session keys.
Certificateless public key cryptography was introduced to remove the use of certificate to ensure the authentication of the user's public key in the traditional certificate-based public key cryptography and overcome he key escrow problem in the identity-based public key cryptography. Concurrent signatures were introduced as an alternative approach to solving the problem of fair exchange of signatures. Combining the concept of certificateless cryptography with the concept of concurrent signature, in this paper, we present a notion of certificateless concurrent signature with a formal security model and propose a provably secure scheme assuming the hardness of computational Diffie-Hellman Problem.
The Edge-enabled Industrial Internet of Things (Edge-IIoT) has emerged as a fundamental architecture for intelligent manufacturing by enabling low-latency data collection, processing, and communication among distributed industrial devices. However, the open and distributed nature of Edge-IIoT introduces significant challenges to secure data authentication and privacy preservation. Meanwhile, conventional public key infrastructure incurs considerable certificate management overhead and is not well suited for future industrial environments in the presence of quantum computing. To address these challenges, this paper proposes a lattice-based certificateless blind signature scheme for secure and privacy-preserving authentication in Edge-IIoT. The proposed scheme integrates the Dilithium signature algorithm with certificateless public key cryptography and blind signature techniques to simultaneously provide anonymous authentication, data integrity, conditional identity revocation, and post-quantum security while eliminating the certificate management overhead associated with traditional public key infrastructures. Furthermore, the proposed construction improves existing lattice-based certificateless blind signature schemes by addressing identified security weaknesses and strengthening resistance against forgery attacks, while effectively avoiding the key escrow problem inherent in identity-based cryptography. The correctness, blindness, and unforgeability of the proposed scheme are formally proved in the random oracle model based on the hardness of the Module Short Integer Solution (MSIS) problem. In addition, theoretical performance analysis demonstrates that the proposed scheme incurs acceptable computational, communication, and storage overhead while providing comprehensive security properties, including certificateless operation, identity anonymity, no key escrow, conditional revocation, and post-quantum security. Overall, the proposed scheme achieves an effective balance between security, privacy preservation, and efficiency, which exhibits favorable theoretical security-efficiency trade-offs for secure industrial data authentication in resource-constrained Edge-IIoT environments. Practical implementation is left for future investigation.