Siming Jin
Siming Jin has a total of 9 co-authors. Here are the top co-authors by number of shared publications:
- Lei Chen
Beiing Jiaotong University
2 shared publications - Limin Jia
Beijing Jiaotong University
2 shared publications - Changliang Li
Innovation Center on Intelligent Collaboration of Satellites and Cloud, CASIC Space Engineering Development Co., Ltd., Beijing 100854, China
1 shared publication - Xiaoping Ma
Beijing Jiaotong University
1 shared publication - Yixuan Gao
Innovation Center on Intelligent Collaboration of Satellites and Cloud, CASIC Space Engineering Development Co., Ltd., Beijing 100854, China
1 shared publication Yixuan Geng
Beiing Jiaotong University
1 shared publication
Latest Publications
- 2 August 2026
- Published by Springer Nature
- p. 532-539
Research on Two-Stage Railway Intrusion Detection Using Enhanced U-Net and YOLOv11
- 2 August 2026
- Published by Springer Nature
- p. 532-539
Research on Two-Stage Railway Intrusion Detection Using Enhanced U-Net and YOLOv11
- Open Access
- 9 January 2026
- Published by MDPI AG in Applied Sciences
- Vol. 16 (2) , 695
Research on Remote Sensing Image Object Segmentation Using a Hybrid Multi-Attention Mechanism
High-resolution remote sensing images are gradually playing an important role in land cover mapping, urban planning, and environmental monitoring tasks. However, current segmentation approaches frequently encounter challenges such as loss of detail and blurred boundaries when processing high-resolution remote sensing imagery, owing to their complex backgrounds and dense semantic content. In response to the aforementioned limitations, this study introduces HMA-UNet, a novel segmentation network built upon the UNet framework and enhanced through a hybrid attention strategy. The architecture’s innovation centers on a composite attention block, where a lightweight split fusion attention (LSFA) mechanism and a lightweight channel-spatial attention (LCSA) mechanism are synergistically integrated within a residual learning structure to replace the stacked convolutional structure in UNet, which can improve the utilization of important shallow features and eliminate redundant information interference. Comprehensive experiments on the WHDLD dataset and the DeepGlobe road extraction dataset show that our proposed method achieves effective segmentation in remote sensing images by fully utilizing shallow features and eliminating redundant information interference. The quantitative evaluation results demonstrate the performance of the proposed method across two benchmark datasets. On the WHDLD dataset, the model attains a mean accuracy, IoU, precision, and recall of 72.40%, 60.71%, 75.46%, and 72.41%, respectively. Correspondingly, on the DeepGlobe road extraction dataset, it achieves a mean accuracy of 57.87%, an mIoU of 49.82%, a mean precision of 78.18%, and a mean recall of 57.87%.
- 9 January 2026
- Published by MDPI AG in Applied Sciences
- Vol. 16 (2) , 695
Open AccessResearch on Remote Sensing Image Object Segmentation Using a Hybrid Multi-Attention Mechanism
High-resolution remote sensing images are gradually playing an important role in land cover mapping, urban planning, and environmental monitoring tasks. However, current segmentation approaches frequently encounter challenges such as loss of detail and blurred boundaries when processing high-resolution remote sensing imagery, owing to their complex backgrounds and dense semantic content. In response to the aforementioned limitations, this study introduces HMA-UNet, a novel segmentation network built upon the UNet framework and enhanced through a hybrid attention strategy. The architecture’s innovation centers on a composite attention block, where a lightweight split fusion attention (LSFA) mechanism and a lightweight channel-spatial attention (LCSA) mechanism are synergistically integrated within a residual learning structure to replace the stacked convolutional structure in UNet, which can improve the utilization of important shallow features and eliminate redundant information interference. Comprehensive experiments on the WHDLD dataset and the DeepGlobe road extraction dataset show that our proposed method achieves effective segmentation in remote sensing images by fully utilizing shallow features and eliminating redundant information interference. The quantitative evaluation results demonstrate the performance of the proposed method across two benchmark datasets. On the WHDLD dataset, the model attains a mean accuracy, IoU, precision, and recall of 72.40%, 60.71%, 75.46%, and 72.41%, respectively. Correspondingly, on the DeepGlobe road extraction dataset, it achieves a mean accuracy of 57.87%, an mIoU of 49.82%, a mean precision of 78.18%, and a mean recall of 57.87%.