IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing · 2024 · 11 citations · 51 references
ComputingComputer ScienceComputer VisionFeature EngineeringRemote SensingAttention NetworksChange DetectionDeep LearningImage Feature EngineeringRemote Sensing Change DetectionSpatial Change DetectionAttention-based Change DetectionConvolutionConvolutional Neural Network-based Change DetectionConvolutional Neural NetworksDeep Learning-based Change DetectionMulti-scale FeaturesMulti-scale Spatial FeaturesSemantic Change Detection
Benefits from the powerful local modeling capability of deep convolutional networks (CNNs), remote sensing image change detection (CD) has made significant progress. In recent years, the rise of Transformers has further driven improvements in global feature extraction for bitemporal remote sensing images. Some prior efforts have tried to integrate CNN and Transformer, but they suffer from the limitation of inefficiently aggregating local features and contextual information. Besides, they struggle to refine change boundaries and exhibit inferior performance in detecting multi-scale and subtle changes. To tackle these interrelated problems, we propose a difference enhanced pyramid pooling dynamic sparse attention network (DPDANet) for CD, which integrates the potential of CNN and pyramid pooling dynamic sparse attention (PDSA) mechanism. Specifically, a pre-trained EfficientNetV2-S network is first used to extract multilevel local fine-grained features. Then, a global semantic enhancement network based on well-designed PDSA mechanism is proposed to extract rich global contextual information. The proposed difference enhancement module (DEM) combines long short term memory (LSTM) and deformable convolution to emphasize relevant and irrelevant changes, capturing precise boundary details of the changing region. A decoder is then employed for step-by-step upsampling of encoded features, with skip connections between local multi-scale features and globally enhanced features. Expensive experiments on four public CD datasets demonstrate that DPDANet outperforms state-of-the-art (SOTA) methods by reducing missed detections and false detections and achieving more accurate boundaries of the changing area.
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