2020
DOI: 10.1007/978-3-030-45099-1_7
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Urban Land Use Classification Using Street View Images Based on Deep Transfer Network

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Cited by 3 publications
(7 citation statements)
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“…Classification method Application Texture and spatial metrics [3] Fisher linear discriminant Urban land use classification geometrical, textural, and contextual information [4] Decision tree, Neural network, Majority rule-based naive model, Urban land use classification Spectral indices (NDVI, MNDWI) [5] random forests, SVM, Extreme gradient boosting, Deep learning complex mixed-use landscape classification Object properties: shape, texture, color [6] mean-shift-based multi-scale segmentation Multi-scale image segmentation Textual features and spectral indices [9] Random Forest Land Use and Coverage Area frame Survey Semantic features extracted from Deep convolutional neural networks [12] contextual-based convolutional neural network with deep architecture and pixel-based multi-layer perceptron neural network (MLP) rule-based decision fusion approach Very fine spatial resolution (VFSR) remotely sensed imagery classification Semantic features extracted form deep convolutional neural networks [13] different CNN-based models remote sensing land use classification Transfer learning using ImageNet dataset [14] Fully connected layers classifiers street view images classification…”
Section: Feature Extraction Methodsmentioning
confidence: 99%
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“…Classification method Application Texture and spatial metrics [3] Fisher linear discriminant Urban land use classification geometrical, textural, and contextual information [4] Decision tree, Neural network, Majority rule-based naive model, Urban land use classification Spectral indices (NDVI, MNDWI) [5] random forests, SVM, Extreme gradient boosting, Deep learning complex mixed-use landscape classification Object properties: shape, texture, color [6] mean-shift-based multi-scale segmentation Multi-scale image segmentation Textual features and spectral indices [9] Random Forest Land Use and Coverage Area frame Survey Semantic features extracted from Deep convolutional neural networks [12] contextual-based convolutional neural network with deep architecture and pixel-based multi-layer perceptron neural network (MLP) rule-based decision fusion approach Very fine spatial resolution (VFSR) remotely sensed imagery classification Semantic features extracted form deep convolutional neural networks [13] different CNN-based models remote sensing land use classification Transfer learning using ImageNet dataset [14] Fully connected layers classifiers street view images classification…”
Section: Feature Extraction Methodsmentioning
confidence: 99%
“…CNNs have the advantages of less training parameters while providing robustness and high performance. That the features obtained by learning can transcend handcrafted feature as demonstrated in several researches and datasets [12]- [14]. AlexNet architecture includes multiple hidden layers: an input layer, five convolutional layers, first, second and fifth of which are followed by pooling layers (3 layers), three fully connected layers, and an output layer.…”
Section: Semantic Featuresmentioning
confidence: 99%
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“…The divergence measure becomes as detailed in ( 6) [21]. The resulting mapping of the sources to the observations is presented in (7). As shown in ( 8) and ( 9) detail th unknown parameters distributions.…”
Section: F(s(t)) = B Tanh(as(t) + A) + B+ N(t)mentioning
confidence: 99%
“…Table 1. Features extraction approaches for land cover classification Spatial metrics and Texture measures for land cover objects classification [1] Parcels geometrical attributes including shape, height, proximity to major roads, similarity to neighbors [2] Spectral indices (NDVI, MNDWI, NDBI) [3] Object-based feature extraction based on spatial and spectral statistics [4] High dimensional feature vector combining focal textures statistics (median, mean, and standard deviation) and Gray Level Co-occurrence Matrix derived in different kernel sizes [5] Semantic features extraction using different deep convolutional neural networks models [6] High-level semantic features extraction based on transfer learning and the Inception-ResNet-v2 model [7] Deep semantic feature extraction using different models (VGG-S , VGG-M, VGG-F, VGG-VD16, VGG-VD16) [8] Combining deep semantic features, spectral features and GLCM texture features [9] Vision-based technology have been widely used for object of interest detection. For instance, in [10] the detecting task is based on histogram equalization and morphological processings.…”
Section: Introductionmentioning
confidence: 99%