An Efficient and Cost-Effective Vehicle Detection and Tracking System for Collision Avoidance in Foggy Weather

An Efficient and Cost-Effective Vehicle Detection and Tracking (ECE-VDT) system is proposed and is essential for real-time collision avoidance and driver assistance in foggy weather conditions. The proposed ECE-VDT system encompasses vehicle detection and tracking algorithms. The optimized SimYOLO-V5s algorithm is proposed for vehicle detection, and the optimized deep-SORT algorithm is proposed for vehicle tracking in foggy weather. Several design changes are considered to optimize the baseline YOLO-V5s algorithm. The backbone network of baseline YOLO-V5s is optimized by integrating the SimSPPF module, a variant of the standard SPPF module. Furthermore, diverse distance metrics and localization/regression loss functions, such as CIOU, DIOU, EIOU, GIOU, and SIOU, are considered to enhance the baseline YOLO-V5s bounding box localization accuracy. These design changes significantly impacted the baseline YOLO-V5s vehicle detection performance. The baseline deep-SORT algorithm is optimized by utilizing the Sigmoid Linear Unit (SiLU) activation function in the pre-trained CNN network compared to the Rectified Linear Unit (ReLU) activation function. The self-annotated and customized state-of-the-art foggy weather vehicle detection datasets, Vehicle Detection in AdverseWeather Nature (DAWN), Foggy Driving (FD), and Foggy Cityscapes (FC), are considered for evaluating the efficient and cost-effective performance of vehicle detection in adverse weather conditions. Extensive and rigorous experiments on cloud and local GPU-enabled systems show that the optimized SimYOLO-V5s variants, more specifically SimYOLO-V5s_GIOU outperformed in mAP50 multi-class vehicle detection by 1.6 % on the DAWN dataset, 15.2 % on the FD dataset, and 3.4 % on the FC dataset compared to baseline YOLO-V5s. The optimized SimYOLO-V5s variants also outperformed state-of-the-art algorithms in accuracy and speed. The optimized deep-SORT_SiLU outperforms pre-processing, inference,NMSpost-processing, and update time, achieving higher FPS on foggy video sequences and the BDD100K dataset compared to the baseline deep-SORT and strong-SORT vehicle tracking algorithms. The proposed ECE-VDT system is an efficient and cost-effective solution to assist human-centric drivers of low-end vehicles and autonomous vehicles to avoid road collisions in foggy weather.

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Publication Details

Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3588376
Citations
3
Primary Topic
Fire Detection and Safety Systems
Type
article
Field-Weighted Citation Impact
3.91
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article

An Efficient and Cost-Effective Vehicle Detection and Tracking System for Collision Avoidance in Foggy Weather

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3 citations
IEEE Access
Fire Detection and Safety Systems
3.91
article

An Efficient and Cost-Effective Vehicle Detection and Tracking System for Collision Avoidance in Foggy Weather

S. Sarwar, Sajida Perveen, Naeem Raza, Mudassar Ahmad, Muhammad Abdul Qayum, Muhammad Asif Habib, Sohail Jabbar, Hafiz Muhammad Imran
article en
3 citations

Abstract

An Efficient and Cost-Effective Vehicle Detection and Tracking (ECE-VDT) system is proposed and is essential for real-time collision avoidance and driver assistance in foggy weather conditions. The proposed ECE-VDT system encompasses vehicle detection and tracking algorithms. The optimized SimYOLO-V5s algorithm is proposed for vehicle detection, and the optimized deep-SORT algorithm is proposed for vehicle tracking in foggy weather. Several design changes are considered to optimize the baseline YOLO-V5s algorithm. The backbone network of baseline YOLO-V5s is optimized by integrating the SimSPPF module, a variant of the standard SPPF module. Furthermore, diverse distance metrics and localization/regression loss functions, such as CIOU, DIOU, EIOU, GIOU, and SIOU, are considered to enhance the baseline YOLO-V5s bounding box localization accuracy. These design changes significantly impacted the baseline YOLO-V5s vehicle detection performance. The baseline deep-SORT algorithm is optimized by utilizing the Sigmoid Linear Unit (SiLU) activation function in the pre-trained CNN network compared to the Rectified Linear Unit (ReLU) activation function. The self-annotated and customized state-of-the-art foggy weather vehicle detection datasets, Vehicle Detection in AdverseWeather Nature (DAWN), Foggy Driving (FD), and Foggy Cityscapes (FC), are considered for evaluating the efficient and cost-effective performance of vehicle detection in adverse weather conditions. Extensive and rigorous experiments on cloud and local GPU-enabled systems show that the optimized SimYOLO-V5s variants, more specifically SimYOLO-V5s_GIOU outperformed in mAP50 multi-class vehicle detection by 1.6 % on the DAWN dataset, 15.2 % on the FD dataset, and 3.4 % on the FC dataset compared to baseline YOLO-V5s. The optimized SimYOLO-V5s variants also outperformed state-of-the-art algorithms in accuracy and speed. The optimized deep-SORT_SiLU outperforms pre-processing, inference,NMSpost-processing, and update time, achieving higher FPS on foggy video sequences and the BDD100K dataset compared to the baseline deep-SORT and strong-SORT vehicle tracking algorithms. The proposed ECE-VDT system is an efficient and cost-effective solution to assist human-centric drivers of low-end vehicles and autonomous vehicles to avoid road collisions in foggy weather.

IEEE AccessVol. 13
University of the Punjab (PK), Imam Mohammad ibn Saud Islamic University (SA), National Textile University (PK)
Climate action
Openalex Percentile: Top 7%
Fire Detection and Safety Systems
3.91
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