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J. Inf. Hiding Multim. Signal Process.

Provably Secure and Distributed Authenticated Quantum Key Agreement Protocol with User-Privacy using Dynamic Basis.

Hongfeng Zhu, Zixi Wang

Published Jan 1, 2018• 0 citations
OpenAlex

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In the distributed computing environments such as wireless network, it is critical to establish a secure session between communicators. A mutual key agreement protocol, namely Symmetrical Authenticated Key Agreement Protocol(SAKAP), is proposed to authenticate identities and establish secure session key between symmetrical users. The security of the protocol is proved in Random Oracle(RO) model, and its performances are analyzed. SAKAP has the advantages of provable security and considerable feasibility over other protocols.
Authenticated key agreement protocol is designed to provide pair of parties communicating over an insecure network with a secure session key.However,most of the existing authenticated key agreement protocols are not designed for protecting privacy.We emphasize user's privacy properties in network services,in particular we stress anonymity and deniability.We specify the desired security properties of privacy-enhancing authentication key agreement protocols,i.e.mutual authentication,key control,key confirmation,session-key confidentiality,known-key security,forward secrecy,anonymity of user,forward anonymity of user,unlinkability,deniability.Based on elliptic curve cryptosystem we also propose a protocol which satisfies all the desired security properties.