计算机科学
卷积神经网络
卷积(计算机科学)
编码器
图形
模式识别(心理学)
核(代数)
人工智能
背景(考古学)
数据挖掘
人工神经网络
理论计算机科学
数学
组合数学
操作系统
生物
古生物学
作者
Yu Shangguan,Jinjiang Li,Zheng Chen,Lu Ren,Zhen Hua
出处
期刊:IEEE Transactions on Geoscience and Remote Sensing
[Institute of Electrical and Electronics Engineers]
日期:2024-01-01
卷期号:62: 1-18
被引量:3
标识
DOI:10.1109/tgrs.2024.3356711
摘要
With the development of imaging systems and satellite technology, higher quality high-resolution RS images are being applied in building change detection (BCD) techniques. Methods based on convolutional neural network (CNN) have achieved excellent success in BCD techniques due to their excellent feature discrimination ability. However, CNN relies heavily on the geometry of prior conditions and is limited by the size of the convolution kernel, making it easy to ignore global information. This makes it difficult to capture the long-range dependence of different building targets and handle complex spatial relationships in high-resolution satellite RS images. Considering that graph convolutional neural networks (GCN) have powerful internal relationship learning capabilities, we propose a multi-scale attention fusion graph network (MAFGNet) in this paper. MAFGNet uses a dual graph convolution module (DGM), which includes a spatial graph convolution network (SGCN) and a channel graph convolution network (CGCN), to effectively explore the long-range relationship between the detection target and the global at the spatial and channel levels. We also design a multi-scale attention fusion encoder that includes channel and spatial attention fusion modules to effectively combine valuable information from multi-scale features. In addition, an atrous context self-attention pyramid (ACSP) is designed to combine multi-scale context to enhance the feature representation of change information. We conducted qualitative and quantitative comparative experiments on different datasets to validate the effectiveness of our model. The experimental results show that our method performs better than advanced methods in terms of overall accuracy and visualization details. Our code is available at https://github.com/ShangGY805/MAFG.
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