Version 2 2023-12-11, 20:13Version 2 2023-12-11, 20:13
Version 1 2023-11-29, 18:16Version 1 2023-11-29, 18:16
conference contribution
posted on 2023-12-11, 20:13authored byDavid Baelde, Stephanie Delaune, Charlie Jacomme, Adrien Koutsos, Solene Moreau
Given the central importance of designing secure protocols, providing solid mathematical foundations and computer-assisted methods to attest for their correctness is becoming crucial. Here, we elaborate on the formal approach introduced by Bana and Comon in [10], [11], which was originally designed to analyze protocols for a fixed number of sessions and which more importantly lacks support for proof mechanization. In this paper, we present a framework and an interactive prover allowing to mechanize proofs of security protocol for an arbitrary number of sessions in the computational model. More specifically, we develop a meta-logic as well as a proof system for deriving security properties. Proofs in our system only deal with high-level, symbolic representations of protocol executions, similar to proofs in the symbolic model, but providing security guarantees at the computational level. We have implemented our approach within a new interactive prover, the SQUIRREL prover, taking as input protocols specified in the applied pi-calculus, and we have performed a number of case studies covering a variety of primitives (hashes, encryption, signatures, Diffie-Hellman exponentiation) and security properties (authentication, strong secrecy, unlinkability).<p></p>
History
Preferred Citation
David Baelde, Stephanie Delaune, Charlie Jacomme, Adrien Koutsos and Solene Moreau. An Interactive Prover for Protocol Verification in the Computational Model. In: IEEE Symposium on Security and Privacy (S&P). 2021.
Primary Research Area
Reliable Security Guarantees
Name of Conference
IEEE Symposium on Security and Privacy (S&P)
Legacy Posted Date
2021-05-10
Open Access Type
Unknown
BibTeX
@inproceedings{cispa_all_3416,
title = "An Interactive Prover for Protocol Verification in the Computational Model",
author = "Baelde, David and Delaune, Stephanie and Jacomme, Charlie and Koutsos, Adrien and Moreau, Solene",
booktitle="{IEEE Symposium on Security and Privacy (S&P)}",
year="2021",
}