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Autores principales: Lin, Xiaojie, Ma, Baihe, Wang, Xu, Yu, Guangsheng, He, Ying, Ni, Wei, Liu, Ren Ping
Formato: Preprint
Publicado: 2025
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Acceso en línea:https://arxiv.org/abs/2507.09624
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author Lin, Xiaojie
Ma, Baihe
Wang, Xu
Yu, Guangsheng
He, Ying
Ni, Wei
Liu, Ren Ping
author_facet Lin, Xiaojie
Ma, Baihe
Wang, Xu
Yu, Guangsheng
He, Ying
Ni, Wei
Liu, Ren Ping
contents Driving trajectory data remains vulnerable to privacy breaches despite existing mitigation measures. Traditional methods for detecting driving trajectories typically rely on map-matching the path using Global Positioning System (GPS) data, which is susceptible to GPS data outage. This paper introduces CAN-Trace, a novel privacy attack mechanism that leverages Controller Area Network (CAN) messages to uncover driving trajectories, posing a significant risk to drivers' long-term privacy. A new trajectory reconstruction algorithm is proposed to transform the CAN messages, specifically vehicle speed and accelerator pedal position, into weighted graphs accommodating various driving statuses. CAN-Trace identifies driving trajectories using graph-matching algorithms applied to the created graphs in comparison to road networks. We also design a new metric to evaluate matched candidates, which allows for potential data gaps and matching inaccuracies. Empirical validation under various real-world conditions, encompassing different vehicles and driving regions, demonstrates the efficacy of CAN-Trace: it achieves an attack success rate of up to 90.59% in the urban region, and 99.41% in the suburban region.
format Preprint
id arxiv_https___arxiv_org_abs_2507_09624
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle CAN-Trace Attack: Exploit CAN Messages to Uncover Driving Trajectories
Lin, Xiaojie
Ma, Baihe
Wang, Xu
Yu, Guangsheng
He, Ying
Ni, Wei
Liu, Ren Ping
Cryptography and Security
Machine Learning
Driving trajectory data remains vulnerable to privacy breaches despite existing mitigation measures. Traditional methods for detecting driving trajectories typically rely on map-matching the path using Global Positioning System (GPS) data, which is susceptible to GPS data outage. This paper introduces CAN-Trace, a novel privacy attack mechanism that leverages Controller Area Network (CAN) messages to uncover driving trajectories, posing a significant risk to drivers' long-term privacy. A new trajectory reconstruction algorithm is proposed to transform the CAN messages, specifically vehicle speed and accelerator pedal position, into weighted graphs accommodating various driving statuses. CAN-Trace identifies driving trajectories using graph-matching algorithms applied to the created graphs in comparison to road networks. We also design a new metric to evaluate matched candidates, which allows for potential data gaps and matching inaccuracies. Empirical validation under various real-world conditions, encompassing different vehicles and driving regions, demonstrates the efficacy of CAN-Trace: it achieves an attack success rate of up to 90.59% in the urban region, and 99.41% in the suburban region.
title CAN-Trace Attack: Exploit CAN Messages to Uncover Driving Trajectories
topic Cryptography and Security
Machine Learning
url https://arxiv.org/abs/2507.09624