Jul 2026· International Journal of Communication Systems· Vol 39· 0 citations· 34 references
TL;DR
An optimized caching mechanism, the quick validation table (QVT), is integrated into the protocol to facilitate certificateless key agreement, ensuring anonymity without continuous third‐party dependence during cross‐domain handovers and significantly optimizes efficiency.
Abstract
The open nature of Internet of Vehicles (IoV) wireless channels necessitates robust identity authentication. However, existing schemes based on public key infrastructure (PKI) or identity‐based cryptography (IBC) often suffer from high computational and communication overheads, making them unsuitable for resource‐constrained vehicular environments. To address these limitations, this paper proposes a lightweight authentication and key agreement protocol utilizing chameleon hash functions (CHF) and elastic bloom filters (EBF). Specifically, an optimized caching mechanism, the quick validation table (QVT), is integrated into the protocol to facilitate certificateless key agreement, ensuring anonymity without continuous third‐party dependence during cross‐domain handovers. By leveraging CHF's controllable collisions to replace complex cryptographic primitives and integrating EBF's probabilistic storage, the protocol significantly optimizes efficiency. Comparative analysis against state‐of‐the‐art lightweight schemes demonstrates reductions of 68.7% in authentication time, 52% in computational overhead, and 74.5% in communication load. Formal security verification under the real‐or‐random (ROR) model confirms the protocol's resistance to simulation, replay, and session key attacks, ensuring forward/backward secrecy.
A lightweight cross-domain mutual authentication scheme (LCMA) for IoV that reduces the need to maintain a large-scale pre-stored CRP database while avoiding repeated reuse of static authentication materials and achieves low computational and communication overhead in comparison with representative schemes.
Xiyuan Ma, Junbeom Hur· Journal of King Saud Univers...· 0 citations
Vehicle-to-Vehicle (V2V) communication in Vehicular Ad Hoc Networks (VANETs) is vulnerable to impersonation, privacy leakage, and other security threats over open wireless channels. Existing authentication schemes commonly rely on a centralized trusted authority (TA), resulting in increased latency and limited scalabil...
Ji-Ping Li, Zhi-Xi Hu, Yi-Ning Liu et al.· 2026 2nd International Confe...· 0 citations
This paper proposes a novel blockchain-based cross-TA authentication and key agreement protocol for IoV environments that achieves both high security and computational efficiency.
G. O. Ghadim, P. Rastegari, Mohammad Dakhilalian et al.· Cluster Computing· 0 citations
Increasing use of the internet of drones (IoD) in defence and tactical applications demands lightweight but secure cryptographic mechanisms that provide privacy, integrity, and authenticity. This paper details a refined identity-based encryption framework that utilizes elliptic curve cryptography and bilinear pairing t...
I. Reshi, S. Akhtar, Ummer Iqbal Khan et al.· Journal of High Speed Networ...· 0 citations
Vehicular Ad-hoc Networks (VANETs) serve as the cornerstone of Intelligent Transportation Systems (ITS), facilitating real-time communication between vehicles and infrastructure to enhance road safety and traffic efficiency. However, authentication schemes in VANETs still face several issues, such as high computational...
EDAKA-IoV is presented, an elliptic-curve-cryptography-based AKA scheme that separates admission filtering from end-to-end session-key establishment and provides a balanced authentication solution for resource-sensitive IoV deployments.