CONSTRUCTION AND ARCHITECTURE

Driving behavior profiling analysis and management based on Internet of Vehicles (IoV) Big Data platform

Authors

  • Y. Wu Moscow State University, 119991, Russia, Moscow, Leninskie Gory, 1

How to cite

GOST Wu Y. Driving behavior profiling analysis and management based on Internet of Vehicles (IoV) Big Data platform // STROITEL'NYE I DOROZHNYE MASHINY. 2025. Vol. 69. No. 9. P. 41-49.
APA Wu, Y. (2025). Driving behavior profiling analysis and management based on Internet of Vehicles (IoV) Big Data platform. STROITEL'NYE I DOROZHNYE MASHINY, 69(9), 41-49.

Abstract

The Internet of Vehicles (IoV) turns every connected automobile into a rolling sensor, delivering terabytes of time-stamped kinematic data that can illuminate how people actually drive. This study puts forward a scalable analytic framework that translates 3.7 million raw driving events recorded by 24 000 vehicles over fifteen months (2022-2023) into an interpretable taxonomy of driving personas. By fusing density-based noise removal with hierarchical agglomerative clustering, six recurrent driver profiles emerged, each marked by distinctive patterns in acceleration, braking, cornering and compliance with speed limits. The subsequent random-forest classifier achieved 87.3% accuracy $(F1=0.842)$ in real-time profile assignment. Field deployment of the profiling engine, coupled with personalised feedback, cut high-risk manoeuvres by 27.8% and squeezed 32.4% more kilometres out of every litre of fuel. Temporal reliability $(ICC=0.824)$ and geographical portability (Pearson $r=0.791$ confirm that the profiles capture enduring behavioural styles rather than ephemeral moods. The framework therefore offers insurers, fleet managers and safety engineers a statistically sound basis for differential risk pricing, targeted coaching and context-aware driver-assist systems.

Keywords

Internet of Vehicles driver profiling big-data analytics machine learning transportation safety risk assessment

References

Bärgman J, Smith K, Werneke J. Quantifying drivers' comfort-zone and dread-zone boundaries in left turn across path/opposite direction (LTAP/OD) scenarios. Transportation research Part F: Traffic // Psychology and behaviour. 2015. № 35. pp. 170-184.

Carsten O, Lai F, Barnard Y, Jamson AH, Merat N. Control task substitution in semiautomated driving: Does it matter what aspects are automated? // Human factors. 2012. № 54(5). pp. 747-761.

Dingus TA, Guo F, Lee S, Antin JF, Perez M, Buchanan-King M, Hankey J. Driver crash risk factors and prevalence evaluation using naturalistic driving data // Proceedings of the National Academy of Sciences. 2016. № 113(10). pp. 2636-2641

Dingus TA, Klauer SG, Neale VL, Petersen A, Lee SE, Sudweeks J, Perez MA, Hankey J, Ramsey D, Gupta S, Bucher C. The 100-car naturalistic driving study, Phase II - Results of the 100-car field experiment // US Department of Transportation, National Highway Traffic Safety Administration. 2006. DOT HS 810 593.

Dozza M, González LC. Understanding bicycle dynamics and cyclist behavior from naturalistic field data // IEEE Transactions on intelligent transportation systems. 2013. № 14(2). pp. 864-870.

Hickman JS, Hanowski RJ. An assessment of commercial motor vehicle driver distraction using naturalistic driving data // Traffic injury prevention. 2012. № 13(6). pp. 612-619.

Sagberg F, Selpi, Bianchi Piccinini GF, Engström J. A review of research on driving styles and road safety // Human factors. 2015. № 57(7). pp. 1248-1275.

Siegel JE, Erb DC, Sarma SE. A survey of the connected vehicle landscape - Architectures, enabling technologies, applications and development areas // IEEE Transactions on intelligent transportation systems. 2018. № 19(8). pp. 2391-2406.

Toledo T, Musicant O, Lotan T. In-vehicle data recorders for monitoring and feedback on drivers' behavior. Transportation research Part C: Emerging // Technologies. 2008. №16(3). pp. 320-331.

Tong S, Lloyd E, Durrell L, McRae-McKee K, Husband P, Delmonte E, Parry I, Buttress S. Provision of telematics research // Transport Research Laboratory. 2015. Published Project Report PPR755.

Van Ly M, Martin S, Trivedi MM. Driver classification and driving style recognition using inertial sensors // IEEE Intelligent Vehicles Symposium. 2013. pp. 1040-1045.

Vlahogianni El, Barmpounakis EN. Driving analytics using smartphones: Algorithms, comparisons and challenges. Transportation research Part C: Emerging // Technologies. 2017. № 79. pp. 196- 206.

Wahlström J, Skog I, Händel P. Smartphone-based vehicle telematics: A ten-year anniversary // IEEE Transactions on Intelligent Transportation Systems. 2017;18(10):2802-2825.

Wang J, Liu J, Kato N. Networking and communications in autonomous driving: A survey // IEEE Communications surveys and Tutorials. 2019. № 21(2). pp. 1243-1274.

Xiong X, Chen L, Liang J. A new framework of vehicle collision prediction by combining SVM and HMM // IEEE Transactions on intelligent transportation systems. 2018. № 19(3). pp.699-710.

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