AWD-YOLO enhancing autonomous driving perception reliability in adverse weather

The perception systems of autonomous vehicles are crucial for their safety. However, their reliability is significantly undermined by adverse weather conditions like rain, sandstorms, and haze, which obscure critical details and lead to object detection failures. To address these issues, a YOLOv8n-based Adverse Weather Dual-backbone YOLO (AWD-YOLO) is proposed. The core contributions are the hierarchical feature fusion strategy and the Faster Local-Region Self-Attention (FLRSA) module. The hierarchical feature fusion strategy employs a dual-backbone network that extracts complementary features from both raw and preprocessed images. These features are integrated using shallow concatenation, a Dual Feature Scale Enhancement (DFSE) module, and a Dual Coordinate and Channel Attention (DCA) module to preserve details and enhance semantics. The FLRSA module is specifically designed to efficiently capture critical local features. Furthermore, a dedicated small-object detection head and the Wise-IoU v3 loss function are utilized to improve localization accuracy. Extensive experiments demonstrate that AWD-YOLO attained an [email protected] of 67.7% and an [email protected]:0.9 of 40.8% on the DAWN dataset, marking enhancements of 15.4% and 8.1% over YOLOv8n, respectively. Additionally, AWD-YOLO exhibits robustness on the RTTS and ACDC datasets, outperforming YOLOv8n by 6.9% and 12.5% in terms of [email protected]. These results highlight AWD-YOLO's potential to enhance the reliability of autonomous driving perception systems in adverse weather.

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Publication Details

Journal
Scientific Reports
Published
2026-01-02
DOI
https://doi.org/10.1038/s41598-025-29575-1
Primary Topic
Advanced Neural Network Applications
Type
article
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article

AWD-YOLO enhancing autonomous driving perception reliability in adverse weather

Tianya Wu, Wanli Dong, Sicong Yang, Ya Yuan
Scientific Reports
Advanced Neural Network Applications
article

AWD-YOLO enhancing autonomous driving perception reliability in adverse weather

Tianya Wu, Wanli Dong, Sicong Yang, Ya Yuan
article en

Abstract

The perception systems of autonomous vehicles are crucial for their safety. However, their reliability is significantly undermined by adverse weather conditions like rain, sandstorms, and haze, which obscure critical details and lead to object detection failures. To address these issues, a YOLOv8n-based Adverse Weather Dual-backbone YOLO (AWD-YOLO) is proposed. The core contributions are the hierarchical feature fusion strategy and the Faster Local-Region Self-Attention (FLRSA) module. The hierarchical feature fusion strategy employs a dual-backbone network that extracts complementary features from both raw and preprocessed images. These features are integrated using shallow concatenation, a Dual Feature Scale Enhancement (DFSE) module, and a Dual Coordinate and Channel Attention (DCA) module to preserve details and enhance semantics. The FLRSA module is specifically designed to efficiently capture critical local features. Furthermore, a dedicated small-object detection head and the Wise-IoU v3 loss function are utilized to improve localization accuracy. Extensive experiments demonstrate that AWD-YOLO attained an [email protected] of 67.7% and an [email protected]:0.9 of 40.8% on the DAWN dataset, marking enhancements of 15.4% and 8.1% over YOLOv8n, respectively. Additionally, AWD-YOLO exhibits robustness on the RTTS and ACDC datasets, outperforming YOLOv8n by 6.9% and 12.5% in terms of [email protected]. These results highlight AWD-YOLO's potential to enhance the reliability of autonomous driving perception systems in adverse weather.

Scientific ReportsVol. 16(1)
Nanchang University (CN)
Openalex Percentile: Top 99%
Advanced Neural Network Applications
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