Multi-dimensional attention transformer for vehicle and pedestrian detection in adverse weather

Real-time object detection in adverse weather and low-light conditions is crucial for applications such as autonomous driving and intelligent surveillance. This paper presents MDAT-YOLO, a novel object detection framework designed to balance accuracy and efficiency in challenging environments. The model integrates multi-dimensional attention mechanisms and transformer-based enhancements to strengthen feature extraction and adaptability. It introduces two core modules: DWConv_O, an optimized depthwise separable convolution layer, and ODConv++, an omni-dimensional dynamic convolution module that enhances spatial, channel, and kernel-level interactions for improved feature selectivity and dynamic response. A lightweight C3 Transformer (C3TR) block further reduces computational overhead while maintaining strong representational capacity. MDAT-YOLO is evaluated on four benchmark datasets, including RTTS, VOC-Foggy, ExDark, and a custom foggy VOC-PASCAL subset, achieving accuracy improvements of 70.50%, 65.14%, 77.40%, and 49.00%, respectively. The model sustains real-time speeds up to 145 FPS, demonstrating robustness and practicality for real-world deployment under diverse environmental conditions.

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Publication Details

Journal
Scientific Reports
Published
2026-03-08
DOI
https://doi.org/10.1038/s41598-026-40319-7
Primary Topic
Image Enhancement Techniques
Type
article
Field-Weighted Citation Impact
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article

Multi-dimensional attention transformer for vehicle and pedestrian detection in adverse weather

Soumen Biswas, Ananth Ganesh, Jayendra Kumar, Priyanka Singh et al.
Scientific Reports
Image Enhancement Techniques
article

Multi-dimensional attention transformer for vehicle and pedestrian detection in adverse weather

Soumen Biswas, Ananth Ganesh, Jayendra Kumar, Priyanka Singh, Abhishek Mitra
article en

Abstract

Real-time object detection in adverse weather and low-light conditions is crucial for applications such as autonomous driving and intelligent surveillance. This paper presents MDAT-YOLO, a novel object detection framework designed to balance accuracy and efficiency in challenging environments. The model integrates multi-dimensional attention mechanisms and transformer-based enhancements to strengthen feature extraction and adaptability. It introduces two core modules: DWConv_O, an optimized depthwise separable convolution layer, and ODConv++, an omni-dimensional dynamic convolution module that enhances spatial, channel, and kernel-level interactions for improved feature selectivity and dynamic response. A lightweight C3 Transformer (C3TR) block further reduces computational overhead while maintaining strong representational capacity. MDAT-YOLO is evaluated on four benchmark datasets, including RTTS, VOC-Foggy, ExDark, and a custom foggy VOC-PASCAL subset, achieving accuracy improvements of 70.50%, 65.14%, 77.40%, and 49.00%, respectively. The model sustains real-time speeds up to 145 FPS, demonstrating robustness and practicality for real-world deployment under diverse environmental conditions.

Scientific Reports
SRM University (IN), General Electric (India) (IN), Hitachi (Japan) (JP)
Sustainable cities and communities
Openalex Percentile: Top 32%
Image Enhancement Techniques
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Multi-dimensional attention transformer for vehicle and pedestrian detection in adverse weather — Soumen Biswas, Ananth Ganesh, et al. · Scientific Reports (2026) | TGRS Research Map | TGRS