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March 17, 2026Advanced Intelligent Systems0 citationsOpen Access

RT‐DETR‐DA for Complex Scenes: Distracted Driving Detection With Feature Interaction and Dynamic Perception

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YLY. F. LiuQLQian LiXWXiBin Wang

Key Points

  • The research aims to improve distracted driving detection methods in complex environments, focusing on adaptability and accuracy.
  • Utilized an enhanced detection framework based on real-time detection transformer.
  • Implemented a dynamic sparse gating multiscale attention module for feature extraction.
  • Developed an attention-guided dual-path fusion module for feature interaction.
  • Evaluated the model's performance using the CBTDDD dataset.
  • Achieved 97.1% mAP50 and 63.6 FPS, indicating high accuracy and speed.
  • Improved mAP50 by 2.5% over the baseline model.
  • Outperformed mainstream lightweight models in distracted driving detection.

Abstract

Distracted driving is a leading cause of road accidents. This risk is particularly critical during autonomous driving system takeover requests, where a driver's inattention can lead to severe consequences. A core challenge for existing detection methods lies in their limited adaptability to real‐world complex driving environments, such as variations across vehicle types and interference from multiple occupants. Specifically designed to address this issue, this paper proposes an enhanced detection framework based on real‐time detection transformer. We boost model performance via two core modules: the dynamic sparse gating multiscale attention module, which strengthens multiscale feature extraction through a dynamic sparse gating mechanism, and the attention‐guided dual‐path fusion module, which achieves precise cross‐layer feature fusion via dual–path interaction. Together, they significantly enhance the model's discriminative power and generalization capability in complex scenarios. Evaluation results on CBTDDD dataset demonstrate that the proposed method achieves a state‐of‐the‐art balance between accuracy and speed, with 97.1% mAP50 and 63.6 FPS. This represents a 2.5% mAP50 improvement over the baseline model and outperforms other mainstream lightweight models. Visualization analyses further confirm its superior attention focus. This research provides an effective pathway for promoting the practical application of distracted driving detection.

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Cite This Study

Liu et al. (2026) studied this question.

synapsesocial.com/papers/69b8f0f0deb47d591b8c5a81https://doi.org/10.1002/aisy.202501451
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