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Swin-HSTPS: Research on Target Detection Algorithms for Multi-Source High-Resolution Remote Sensing Images
Kun Fang1, Jianquan Ouyang2, Buwei Hu2
1Hunan Meteorological Information Center, Hunan Meteorological Bureau, Changsha 410118, China.
Sensors (Basel, Switzerland)
|December 10, 2021
Summary
This study introduces the Swin-HSTPS model for detecting traffic port stations in high-resolution remote sensing images. The novel model significantly improves the recognition accuracy of complex multi-target scenarios, outperforming existing methods.
Area of Science:
- Remote Sensing
- Computer Vision
- Deep Learning
Background:
- Accurate detection of traffic port stations (airports, ports) in high-resolution remote sensing images is challenging due to complex multi-target scenarios.
- Current deep learning methods, while advanced for single-target detection, struggle with recognizing intricate multi-target complexes in remote sensing data.
- High-precision positioning requires comprehensive analysis of feature information from multiple small targets within these stations.
Purpose of the Study:
- To develop a novel detection model, Swin-HSTPS, for accurately identifying traffic port stations in high-resolution remote sensing images.
- To enhance the recognition accuracy of multi-target complexes within these images.
- To achieve high-precision positioning of traffic port stations by analyzing combined feature information of multiple small targets.
Main Methods:
- Constructed a novel Swin-HSTPS model for traffic port station detection.
- Integrated the MixUp hybrid enhancement algorithm for improved image feature information during preprocessing.
- Incorporated the PReLU activation function into the Swin Transformer's forward network, creating a ResNet-like residual network to strengthen pixel block information interaction.
Main Results:
- The Swin-HSTPS model achieved an optimal average precision of 85.3%, an improvement of approximately 8% over the standard Swin Transformer detection model.
- Demonstrated superior target prediction accuracy compared to the Swin Transformer model.
- Experimental results confirmed the model's ability to accurately locate traffic port stations like airports and ports.
Conclusions:
- The Swin-HSTPS model effectively addresses the challenge of multi-target complex recognition in high-resolution remote sensing images.
- The model offers superior target prediction capabilities for traffic port stations compared to mainstream models like R-CNN and YOLOv5.
- Swin-HSTPS provides a robust solution for high-precision positioning of traffic port stations in remote sensing applications.
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