Muhammad John Abbas;Muhammad Attique Khan;Ameer Hamza;Shrooq Alsenan;Areej Alasiry;Mehrez Marzougui;Yang Li;Yunyoung Nam
{"title":"SEMSF-Net:可解释的压缩激励多尺度融合网络,用于遥感影像的航景和海岸区域识别","authors":"Muhammad John Abbas;Muhammad Attique Khan;Ameer Hamza;Shrooq Alsenan;Areej Alasiry;Mehrez Marzougui;Yang Li;Yunyoung Nam","doi":"10.1109/JSTARS.2025.3580801","DOIUrl":null,"url":null,"abstract":"Land use and land cover (LULC) classification has played a key role over the last decade for managing the decay of resources and mitigating the impact of population growth. It is used in several places, such as rapid urbanization, agriculture, climate change, coastal areas, and disaster recovery. The traditional remote sensing (RS) techniques encounter limitations in accurately classifying dynamic and complex ariel scenes, such as coastal areas and LULC. This article proposed a novel squeeze–excitation multiscale fusion network (SEMSF-Net) to classify LULC and the coastal regions using RS images. The proposed model is based on the squeeze-and-excitation block initially embedded with inception and dense blocks separately. These blocks are designed based on the multiscale to generate more important feature information that can later perform accurate classification. In the next phase, these blocks are fused at the network level, where bottleneck and inverted residual blocks are connected to reduce the learnable parameters and improve feature strength. The hyperparameters of this network are selected based on the several experiments utilized in the training of the proposed model. The trained SEMSF-Net architecture is further employed in the testing phase, and classification is performed. The GradCAM is also used to interpret the trained model’s visual prediction. Three datasets are utilized for the experimental process: the Coastal dataset, MLRSNet, and NWPU. We obtained an improved accuracy of 94.94%, 93.7%, and 95.70% on these datasets, respectively. In addition, the macro recall rates are 79.0%, 93.0%, and 96%, respectively. Comparison with several recent techniques shows that the proposed model outperforms the selected datasets.","PeriodicalId":13116,"journal":{"name":"IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing","volume":"18 ","pages":"15755-15773"},"PeriodicalIF":5.3000,"publicationDate":"2025-06-18","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://ieeexplore.ieee.org/stamp/stamp.jsp?tp=&arnumber=11039102","citationCount":"0","resultStr":"{\"title\":\"SEMSF-Net: Explainable Squeeze–Excitation Multiscale Fusion Network for Aerial Scene and Coastal Area Recognition Using Remote Sensing Images\",\"authors\":\"Muhammad John Abbas;Muhammad Attique Khan;Ameer Hamza;Shrooq Alsenan;Areej Alasiry;Mehrez Marzougui;Yang Li;Yunyoung Nam\",\"doi\":\"10.1109/JSTARS.2025.3580801\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"Land use and land cover (LULC) classification has played a key role over the last decade for managing the decay of resources and mitigating the impact of population growth. It is used in several places, such as rapid urbanization, agriculture, climate change, coastal areas, and disaster recovery. The traditional remote sensing (RS) techniques encounter limitations in accurately classifying dynamic and complex ariel scenes, such as coastal areas and LULC. This article proposed a novel squeeze–excitation multiscale fusion network (SEMSF-Net) to classify LULC and the coastal regions using RS images. The proposed model is based on the squeeze-and-excitation block initially embedded with inception and dense blocks separately. These blocks are designed based on the multiscale to generate more important feature information that can later perform accurate classification. In the next phase, these blocks are fused at the network level, where bottleneck and inverted residual blocks are connected to reduce the learnable parameters and improve feature strength. The hyperparameters of this network are selected based on the several experiments utilized in the training of the proposed model. The trained SEMSF-Net architecture is further employed in the testing phase, and classification is performed. The GradCAM is also used to interpret the trained model’s visual prediction. Three datasets are utilized for the experimental process: the Coastal dataset, MLRSNet, and NWPU. We obtained an improved accuracy of 94.94%, 93.7%, and 95.70% on these datasets, respectively. In addition, the macro recall rates are 79.0%, 93.0%, and 96%, respectively. 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SEMSF-Net: Explainable Squeeze–Excitation Multiscale Fusion Network for Aerial Scene and Coastal Area Recognition Using Remote Sensing Images
Land use and land cover (LULC) classification has played a key role over the last decade for managing the decay of resources and mitigating the impact of population growth. It is used in several places, such as rapid urbanization, agriculture, climate change, coastal areas, and disaster recovery. The traditional remote sensing (RS) techniques encounter limitations in accurately classifying dynamic and complex ariel scenes, such as coastal areas and LULC. This article proposed a novel squeeze–excitation multiscale fusion network (SEMSF-Net) to classify LULC and the coastal regions using RS images. The proposed model is based on the squeeze-and-excitation block initially embedded with inception and dense blocks separately. These blocks are designed based on the multiscale to generate more important feature information that can later perform accurate classification. In the next phase, these blocks are fused at the network level, where bottleneck and inverted residual blocks are connected to reduce the learnable parameters and improve feature strength. The hyperparameters of this network are selected based on the several experiments utilized in the training of the proposed model. The trained SEMSF-Net architecture is further employed in the testing phase, and classification is performed. The GradCAM is also used to interpret the trained model’s visual prediction. Three datasets are utilized for the experimental process: the Coastal dataset, MLRSNet, and NWPU. We obtained an improved accuracy of 94.94%, 93.7%, and 95.70% on these datasets, respectively. In addition, the macro recall rates are 79.0%, 93.0%, and 96%, respectively. Comparison with several recent techniques shows that the proposed model outperforms the selected datasets.
期刊介绍:
The IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing addresses the growing field of applications in Earth observations and remote sensing, and also provides a venue for the rapidly expanding special issues that are being sponsored by the IEEE Geosciences and Remote Sensing Society. The journal draws upon the experience of the highly successful “IEEE Transactions on Geoscience and Remote Sensing” and provide a complementary medium for the wide range of topics in applied earth observations. The ‘Applications’ areas encompasses the societal benefit areas of the Global Earth Observations Systems of Systems (GEOSS) program. Through deliberations over two years, ministers from 50 countries agreed to identify nine areas where Earth observation could positively impact the quality of life and health of their respective countries. Some of these are areas not traditionally addressed in the IEEE context. These include biodiversity, health and climate. Yet it is the skill sets of IEEE members, in areas such as observations, communications, computers, signal processing, standards and ocean engineering, that form the technical underpinnings of GEOSS. Thus, the Journal attracts a broad range of interests that serves both present members in new ways and expands the IEEE visibility into new areas.