Visible to the public CPSS: CP-ABE based Platoon Secure Sensing Scheme against Cyber-Attacks

TitleCPSS: CP-ABE based Platoon Secure Sensing Scheme against Cyber-Attacks
Publication TypeConference Paper
Year of Publication2019
AuthorsJiang, Feng, Qi, Buren, Wu, Tianhao, Zhu, Konglin, Zhang, Lin
Conference Name2019 IEEE Intelligent Transportation Systems Conference (ITSC)
Date Publishedoct
KeywordsAccess Control, access control structure, authorisation, cloud computing, Collaboration, computational complexity, CP-ABE, CP-ABE based platoon, CPSS, cryptography, cyber-attacks, cyphertext-policy attribute-based encryption, distance fluctuations, driving applications, Encryption, Gold, key distribution process, life-threatening accidents, LTE-V2X, malicious attacks, platoon key, platoon maneuvers, platoon secure sensing scheme, platoon stability, policy-based governance, polynomial time solution, position information, pubcrawl, Public key, Safety, Scalability, security insurance, sensing data, Sensors, Stability analysis, traffic efficiency, traffic engineering computing, Veins platform
Abstract

Platoon is one of cooperative driving applications where a set of vehicles can collaboratively sense each other for driving safety and traffic efficiency. However, platoon without security insurance makes the cooperative vehicles vulnerable to cyber-attacks, which may cause life-threatening accidents. In this paper, we introduce malicious attacks in platoon maneuvers. To defend against these attacks, we propose a Cyphertext-Policy Attribute-Based Encryption (CP-ABE) based Platoon Secure Sensing scheme, named CPSS. In the CPSS, platoon key is encapsulated in the access control structure in the key distribution process, so that interference messages sending by attackers without the platoon key could be ignored. Therefore, the sensing data which contains speed and position information can be protected. In this way, speed and distance fluctuations caused by attacks can be mitigated even eliminated thereby avoiding the collisions and ensuring the overall platoon stability. Time complexity analysis shows that the CPSS is more efficient than that of the polynomial time solutions. Finally, to evaluate capabilities of the CPSS, we integrate a LTE-V2X with platoon maneuvers based on Veins platform. The evaluation results show that the CPSS outperforms the baseline algorithm by 25% in terms of distance variations.

DOI10.1109/ITSC.2019.8916784
Citation Keyjiang_cpss_2019