IoT-Enabled Speed and Accident Detection Platform Using Deep Learning and Multi-Object Tracking
Authors:
Fahmida Islam Department of Computer Science and Engineering, The People’s University of Bangladesh
Jesmin Akter Department of Computer Science and Engineering, The People’s University of Bangladesh
Husne Farah Department of Computer Science and Engineering, The People’s University of Bangladesh
Prome Saha Resha Department of Computer Science and Engineering, The People’s University of Bangladesh
Submission Date: 15-04-2026, Accepted Date: 02-05-2026, Publication Date: 12-05-2026

Index Terms:
IoT, Vehicle Speed Detection, Accident Detection, Computer Vision, YOLOv8, ByteTrack, OpenCV, Traffic Monitoring, Intelligent Transportation System, Deep Learning, Smart City.
Abstract:
Road traffic accidents and overspeeding remain critical public safety challenges worldwide, disproportionately affecting rapidly urbanizing regions with limited automated enforcement capacity. This paper presents an IoT-Enabled Speed and Accident Detection Platform that incorporates multi-object tracking and deep-learning based object recognition, and calibration-based speed estimation into a unified, real-time intelligent traffic monitoring framework. The proposed system employs YOLOv8 for accurate, high-speed vehicle detection; ByteTrack for consistent persistent identity assignment across consecutive video frames; and a pixel-to-real-world-distance calibration method for precise vehicle speed computation. The platform automatically classifies vehicle types, identifies overspeeding behavior against configurable speed thresholds, generates real-time visual alerts, counts traffic volume through a configurable virtual line-crossing mechanism, and supports future IoT and cloud-platform integration for accident detection, remote monitoring, and emergency response automation. Experimental evaluation on traffic video sequences recorded at an urban intersection in Dhaka, Bangladesh, shows a mean Average Precision (mAP@0.5) as 0.82, a Multi-Object Tracking Accuracy or MOTA of 0.75, an IDF1 of 0.79, and a speed estimation Mean Absolute Error or MAE as 3.2 km/h. The reconfigurable, scalable architecture positions this platform as a practical and cost-effective foundation for intelligent transportation systems (ITS) and smart city infrastructure.
Conclusion:
This paper presented an IoT-Enabled Speed and Accident Detection Platform integrating YOLOv8-based vehicle detection, ByteTrack multi-object tracking, and calibration-based speed estimation into a modular, real-time, and IoT-extensible intelligent traffic monitoring system. The platform addresses the critical shortcomings of traditional manual and semi-automated traffic enforcement by delivering automated, continuous, and scalable video analytics without requiring specialized sensor hardware. Experimental evaluation on real-world urban traffic sequences confirmed high detection accuracy (mAP@0.5 = 0.82), robust tracking performance (IDF1 = 0.79, MOTA = 0.75), and practical speed estimation accuracy (MAE = 3.2 km/h). The comparative analysis demonstrates that the proposed system achieves superior or competitive performance relative to established baselines across all evaluated dimensions while additionally providing IoT integration capability.
The modular architecture—with clear separation between the input, processing, analytics, and output layers—facilitates independent upgrading of individual components as more powerful detection models, tracking algorithms, or IoT protocols become available. This design positions the platform as a durable and adaptable foundation for intelligent transportation systems and smart city infrastructure.
License:
Articles published in OAJEA are licensed under a Creative Commons Attribution 4.0 International License.
Cite This Paper:
F. Islam, J. Akter, H. Farah, P.S. Resha “IoT-Enabled Speed and Accident Detection Platform Using Deep Learning and Multi-Object Tracking”, Open Access Journal on Engineering Applications (OAJEA), Volume No. 01, Issue No. 02, Page 52-59, May, 2026. https://doi.org/10.64886/oajea.0102.006
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