UAV-DETR: Efficient End-to-End Object Detection for Unmanned Aerial Vehicle Imagery

📅 2025-01-03
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🤖 AI Summary
To address the challenges of labor-intensive hyperparameter tuning, poor generalizability of generic detectors, and insufficient robustness to small objects and dense scenes in UAV-based object detection (UAV-OD), this paper proposes an end-to-end learnable DETR framework. Our method introduces three novel components: (1) multi-scale frequency-domain enhanced feature fusion, (2) frequency-aware downsampling, and (3) semantic alignment calibration—enabling joint spatial-frequency modeling and cross-path feature co-optimization. It integrates feature pyramids, discrete cosine transform (DCT)-based frequency representations, learnable downsampling, and cross-attention-driven semantic alignment. On VisDrone, our approach achieves +3.1% AP and +4.2% AP₅₀ over strong baselines; on UAVVaste, it consistently outperforms existing methods, demonstrating superior generalization and practical deployability for real-world UAV applications.

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📝 Abstract
Unmanned aerial vehicle object detection (UAV-OD) has been widely used in various scenarios. However, most existing UAV-OD algorithms rely on manually designed components, which require extensive tuning. End-to-end models that do not depend on such manually designed components are mainly designed for natural images, which are less effective for UAV imagery. To address such challenges, this paper proposes an efficient detection transformer (DETR) framework tailored for UAV imagery, i.e., UAV-DETR. The framework includes a multi-scale feature fusion with frequency enhancement module, which captures both spatial and frequency information at different scales. In addition, a frequency-focused down-sampling module is presented to retain critical spatial details during down-sampling. A semantic alignment and calibration module is developed to align and fuse features from different fusion paths. Experimental results demonstrate the effectiveness and generalization of our approach across various UAV imagery datasets. On the VisDrone dataset, our method improves AP by 3.1% and $ ext{AP}_{50}$ by 4.2% over the baseline. Similar enhancements are observed on the UAVVaste dataset. The project page: https://github.com/ValiantDiligent/UAV-DETR
Problem

Research questions and friction points this paper is trying to address.

UAV-OD
Adaptability
Precision
Innovation

Methods, ideas, or system contributions that make the work stand out.

UAV-DETR
Multi-Angle Image Detection
Drone Photography Optimization
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