Path Aggregation Network based WATT-EffNet for Unmanned Aerial Image Classification

High-resolution aerial images captured by UAVs are critical in various real-world applications. However, effective classification of these images is challenging due to scale variation, occlusions, and complex scene structures. Existing deep learning models often face a trade-off between computational efficiency and classification accuracy. To address this issue, a novel Path Aggregation Network-based Wider Attention EfficientNet (PANet-WATT-EffNet) is proposed. PANet-WATT-EffNet employs EfficientNet as a lightweight backbone, combined with wider attention layers to capture salient regions. PANet is used for multi-scale feature fusion. PANet-WATT-EffNet’s design improves the extraction of fine-grained and global features, enabling accurate recognition of small and complex objects in aerial imagery. Experimental evaluation on UAV benchmark datasets shows that the model achieves 97.71% accuracy. A significant gain is observed in F-measure, MCC, and reduced RMSE values of PANet-WATT-EffNet, while also lowering computational time compared to existing methods. The results confirm the robustness of the approach in handling diverse aerial imagery. The lightweight architecture further supports deployment on resource-constrained edge devices, making it suitable for applications in precision agriculture, urban infrastructure monitoring, disaster management, and defence surveillance.

Publication Details

Journal
International Journal of Electronics and Communication Engineering
Published
2025-09-30
DOI
https://doi.org/10.14445/23488549/ijece-v12i9p109
Primary Topic
Video Surveillance and Tracking Methods
Type
article
Field-Weighted Citation Impact
0.00
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article

Path Aggregation Network based WATT-EffNet for Unmanned Aerial Image Classification

International Journal of Electronics and Communication Engineering
Video Surveillance and Tracking Methods
article

Path Aggregation Network based WATT-EffNet for Unmanned Aerial Image Classification

article en

Abstract

High-resolution aerial images captured by UAVs are critical in various real-world applications. However, effective classification of these images is challenging due to scale variation, occlusions, and complex scene structures. Existing deep learning models often face a trade-off between computational efficiency and classification accuracy. To address this issue, a novel Path Aggregation Network-based Wider Attention EfficientNet (PANet-WATT-EffNet) is proposed. PANet-WATT-EffNet employs EfficientNet as a lightweight backbone, combined with wider attention layers to capture salient regions. PANet is used for multi-scale feature fusion. PANet-WATT-EffNet’s design improves the extraction of fine-grained and global features, enabling accurate recognition of small and complex objects in aerial imagery. Experimental evaluation on UAV benchmark datasets shows that the model achieves 97.71% accuracy. A significant gain is observed in F-measure, MCC, and reduced RMSE values of PANet-WATT-EffNet, while also lowering computational time compared to existing methods. The results confirm the robustness of the approach in handling diverse aerial imagery. The lightweight architecture further supports deployment on resource-constrained edge devices, making it suitable for applications in precision agriculture, urban infrastructure monitoring, disaster management, and defence surveillance.

International Journal of Electronics and Communication EngineeringVol. 12(9)
Openalex Percentile: Top 73%
Video Surveillance and Tracking Methods
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