Authors :
Abdul Rehman; Mohammad Zaidan Waseem; Abdul Rafey; Ali Abbas Hussaini; Hina Parveen; Nida Khan
Volume/Issue :
Volume 10 - 2025, Issue 4 - April
Google Scholar :
https://tinyurl.com/ymvtu3rh
Scribd :
https://tinyurl.com/p22r8jhm
DOI :
https://doi.org/10.38124/ijisrt/25apr1476
Google Scholar
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Abstract :
Human drivers bring a unique mix of skills, instincts, and emotions to the road, shaped by their individual driving
habits. However, driver drowsiness poses a serious threat to road safety, making it critical to develop effective detection
systems to prevent accidents. Past efforts to identify unusual driver behavior often focused on analyzing the driver’s face or
vehicle movements using computer vision techniques. While these methods provided some insights, they struggled to capture
the full complexity of driver behavior.
With the rise of deep learning, researchers have increasingly turned to neural networks to better understand and detect
driver drowsiness. This paper presents a fresh approach using vision transformers and YOLOv5 architectures to recognize
signs of drowsiness. We propose a customized YOLOv5 model, pre-trained to detect and extract the driver’s face as the
Region of Interest (ROI). To overcome the limitations of earlier systems, we incorporate vision transformers for binary
image classification. Our model was trained and tested on the public UTA-RLDD dataset, achieving impressive results with
96.2% training accuracy and 97.4% validation accuracy.
To further evaluate its performance, we tested the framework on a custom dataset of 39 participants under various
lighting conditions, where it achieved a solid 95.5% accuracy. These experiments highlight the strong potential of our
approach for real-world use in smart transportation systems, paving the way for safer roads.
Keywords :
Drowsiness Detection, Image Classification , Vision Transformers (VIT) ,Yolov5, Face Detection.
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Human drivers bring a unique mix of skills, instincts, and emotions to the road, shaped by their individual driving
habits. However, driver drowsiness poses a serious threat to road safety, making it critical to develop effective detection
systems to prevent accidents. Past efforts to identify unusual driver behavior often focused on analyzing the driver’s face or
vehicle movements using computer vision techniques. While these methods provided some insights, they struggled to capture
the full complexity of driver behavior.
With the rise of deep learning, researchers have increasingly turned to neural networks to better understand and detect
driver drowsiness. This paper presents a fresh approach using vision transformers and YOLOv5 architectures to recognize
signs of drowsiness. We propose a customized YOLOv5 model, pre-trained to detect and extract the driver’s face as the
Region of Interest (ROI). To overcome the limitations of earlier systems, we incorporate vision transformers for binary
image classification. Our model was trained and tested on the public UTA-RLDD dataset, achieving impressive results with
96.2% training accuracy and 97.4% validation accuracy.
To further evaluate its performance, we tested the framework on a custom dataset of 39 participants under various
lighting conditions, where it achieved a solid 95.5% accuracy. These experiments highlight the strong potential of our
approach for real-world use in smart transportation systems, paving the way for safer roads.
Keywords :
Drowsiness Detection, Image Classification , Vision Transformers (VIT) ,Yolov5, Face Detection.