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International Conference on Availability, Reliability and Security (ARES)

An Authenticated 3-Round Identity-Based Group Key Agreement Protocol

Gang Yao, Hongji Wang, Qingshan Jiang

Published Mar 1, 2008• 12 citations
Publisher

Abstract

Key agreement protocols allow two or more participants exchange information over an open network with each other. In modern collaborative and distributed applications, authenticated group key agreement is one of the important issues. Recently identity-based authenticated key agreement protocol has been increasingly investigated because of the simplicity of a public key management. In this paper, we propose an authenticated three-round identity-based group key agreement protocol. The first round is for identity authentication, the second round is for key agreement, and the third round is for key confirmation. The proposed protocol is based on the protocol of Burmester and Desmedt, and the protocol is provably- secure in the random oracle model. In particular, the proposed authenticated identity-based group key agreement protocol provides a batch verification technique, which verifies the validity of transcripts from other group players simultaneously.

DOI
10.1109/ares.2008.66

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Key agreement protocols allow two or more participants exchange information over an open network with each other. In modern collaborative and distributed applications, authenticated group key agreement is one of the important issues. Recently identity-based authenticated key agreement protocol has been increasingly investigated because of the simplicity of a public key management. In this paper, we propose an authenticated three-round identity-based group key agreement protocol. The first round is for identity authentication, the second round is for key agreement, and the third round is for key confirmation. The proposed protocol is based on the protocol of Burmester and Desmedt, and the protocol is provably- secure in the random oracle model. In particular, the proposed authenticated identity-based group key agreement protocol provides a batch verification technique, which verifies the validity of transcripts from other group players simultaneously.
Authenticated group key agreement is important in many modern collaborative and distributed applications. Recently, identity-based authenticated group key agreement has been increasingly researched because of the simplicity of a public key management. Basically, these protocols provide authentication by signatures. Hence they are less efficient for the verification of signatures creates additional computational overhead. In the paper, we propose an efficient authenticated group key agreement protocol by introducing a modified identity-based public key infrastructure with new system setup and key extraction algorithms. The security of our protocol is assured by the discrete logarithm assumption. Moreover, our protocol requires only one round and is more efficient than all previously known ones since it provides authentication without using signatures.
Identity-based key agreement protocols allow the participants in a group exchange information over an open network with each other. However, in most of proposed IDbased protocol, identities of group users are exposed, so that eavesdroppers can easily learn who belongs to the specific group. In this paper, we proposed a complete anonymous group key agreement protocol based on the Burmester and Desmedt mechanism and ID-based encryption cryptosystems. The proposed protocol is provably-secure in the random oracle model, and achieves the following security attribute: complete anonymity, unlinkability, group key secrecy, perfect forward secrecy for the group session key and entity authentication.
In 2008, Gang Yao et al. proposed an authenticated 3-round identity-based group key agreement protocol, which is based on Burmester and Desmedt’s protocol proposed at Eurocrypt 94. However, their protocol can only prevent passive attack. If the active attack is allowed, the protocol is vulnerable and an internal attacker can forge her neighbor’s keying material. It is obvious that the protocol do not achieve the aim of authentication. In this paper, we discuss the flaws to attack this protocol and propose an enhanced provably-secure protocol based on their protocol. At last, we make a detailed security analysis of our enhanced authenticated identity-based group key agreement protocol.
Group key management is one of the basic building blocks in securing group communication.A number of solutions to group key exchange have been proposed,but most of them are not scalable and,in particular,require at least 0(log n) communication rounds.We formally present a constant -round Identity-based protocol with forward secrecy for group key exchange,which is provably secure in the security model introduced by Bresson et al.Our protocol focuses on round efficiency and the number of communication round is only one greater than the lower bound presented by Becker and Wille.And,the protocol provides a batch verification technique,which simultaneously verifies the validity of messages from other group participants and greatly improves computational efficiency.Moreover,in our protocol,it is no necessary of always-online key generation center during the execution of the protocol compared to other Identity-based protocols.
Group key agreement protocol allows all the members to agree upon a common session key, which may be used for later secure communication among all the participants. Through incorporating ID-based authenticated two-party key agreement protocol proposed by McCullagh et al. and constant round group key agreement proposed by Burmester and Desmedt, we propose a new ID-based two round authenticated group key agreement protocol which is more efficient than previously proposed protocols in terms of both communication and computation cost.
In modern collaborative and distributed applications, authenticated group key agreement (AGKA) is one of the important issues. In this paper, we present that one existing certificateless AGKA protocol has some security drawbacks and does not satisfy some security attributes required for AGKA protocols. To overcome its drawbacks, we propose a secure and efficient protocol upon the initial one and a signature scheme proved secure in the random oracle model. The security analysis shows that our improved protocol can achieve Explicit key authentication, Known session key security, Known ephemeral secrets security, Perfect forward security, No key compromise impersonation, No key control and No unknown key share. With respect to efficiency, our protocol only needs three communication rounds. In each protocol run, only three pairing computations are involved for each participant.