Normal view MARC view ISBD view

Secure key agreement protocol defiant to denial-of-service attack based on three party authentication

By: Chunka, Chukhu.
Contributor(s): Banerjee, Subhasish.
Publisher: New York Springer 2022Edition: Vol.103(2), Apr.Description: 329–340p.Subject(s): Humanities and Applied SciencesOnline resources: Click here In: Journal of the institution of engineers (India): Series BSummary: To perform the secure communication over the insecure channel, Key Agreement Protocol is a prominent approach to generate the session key between the communication parties. Since the last two decades, researchers came up with various ideas to design the Key Agreement Protocols based on three-party authentications. However, such proposed schemes could not resist many possible threats which may occur habitually in today’s environment. In the recent era, Chen et al. designed a key agreement protocol based on three-party key authentication to avoid numerous possible threats. Unfortunately, it has been proved that their protocol couldn’t achieve the user anonymity requirement and is also vulnerable towards Denial-of-service (DoS) attack. Therefore, in this paper, to overcome these weaknesses a probable solution has been provided. The proposed scheme is not only secured against the DoS attack and able to achieve user anonymity but also sustains against any possible threats as well. Later, a formal analysis of BAN (Burrows-Abadi-Needham) logic has been demonstrated to prove the correctness of the proposed protocol. Moreover, the informal security analysis of the proposed scheme has also explained and also proved the superiority of the scheme by comparing it with other related schemes. Lastly, the proposed scheme has been simulated using ProVerif (2.0) tool to verify the secrecy of the session key establishment and the mutual authentication between the participants.
Tags from this library: No tags from this library for this title. Log in to add tags.
    average rating: 0.0 (0 votes)
Item type Current location Call number Status Date due Barcode Item holds
Articles Abstract Database Articles Abstract Database School of Engineering & Technology
Archieval Section
Not for loan 2022-1599
Total holds: 0

To perform the secure communication over the insecure channel, Key Agreement Protocol is a prominent approach to generate the session key between the communication parties. Since the last two decades, researchers came up with various ideas to design the Key Agreement Protocols based on three-party authentications. However, such proposed schemes could not resist many possible threats which may occur habitually in today’s environment. In the recent era, Chen et al. designed a key agreement protocol based on three-party key authentication to avoid numerous possible threats. Unfortunately, it has been proved that their protocol couldn’t achieve the user anonymity requirement and is also vulnerable towards Denial-of-service (DoS) attack. Therefore, in this paper, to overcome these weaknesses a probable solution has been provided. The proposed scheme is not only secured against the DoS attack and able to achieve user anonymity but also sustains against any possible threats as well. Later, a formal analysis of BAN (Burrows-Abadi-Needham) logic has been demonstrated to prove the correctness of the proposed protocol. Moreover, the informal security analysis of the proposed scheme has also explained and also proved the superiority of the scheme by comparing it with other related schemes. Lastly, the proposed scheme has been simulated using ProVerif (2.0) tool to verify the secrecy of the session key establishment and the mutual authentication between the participants.

There are no comments for this item.

Log in to your account to post a comment.

Click on an image to view it in the image viewer

Unique Visitors hit counter Total Page Views free counter
Implemented and Maintained by AIKTC-KRRC (Central Library).
For any Suggestions/Query Contact to library or Email: librarian@aiktc.ac.in | Ph:+91 22 27481247
Website/OPAC best viewed in Mozilla Browser in 1366X768 Resolution.

Powered by Koha