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Fig 1.

Batch normalization.

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Fig 2.

Group normalization (g = 2).

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Fig 3.

Visualization of whitening effectiveness.

(a) Original data. (b) PCA whiten data. (c) ZCA whiten data.

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Fig 4.

The architecture of proposed SCNet.

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Fig 5.

The structure of SCConv with residual connection.

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Fig 6.

The architecture of spatial reconstruction unit.

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Fig 7.

The architecture of channel reconstruction unit.

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Fig 8.

Different depths contain varying quantities of feature information.

(a) Feature maps of Conv. (b) First SCConv module’s feature maps. (c) Second. (d) Third.

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Table 1.

The class names of UP dataset along with the number of training, validation, and test samples for each class.

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Table 2.

The class names of KSC dataset along with the number of training, validation, and test samples for each class.

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Table 3.

The class names of WHLK dataset along with the number of training, validation, and test samples for each class.

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Table 4.

The class names of IP dataset along with the number of training, validation, and test samples for each class.

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Fig 9.

The FLOPs and OA on four datasets with different split rRESEARCHARTICLEatios in SCConv.

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Fig 10.

Classification results for varying patch sizes on four datasets.

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Table 5.

Network configuration of the SCNet model on Indian Pines dataset.

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Fig 11.

Classification maps for the UP dataset using 1% training samples.

(a) RGB image. (b) Ground-truth (GT). (c–h) The classification maps with disparate algorithms.

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Table 6.

The classification results for the UP dataset with 1% training samples.

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Fig 12.

Classification maps for the KSC dataset using 5% training samples.

(a) False-color image. (b) Ground-truth (GT). (c–h) The classification maps with disparate algorithms.

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Table 7.

The classification results for the KSC dataset with 5% training samples.

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Fig 13.

Classification maps for the WHLK dataset using 0.2% training samples.

(a) False-color image. (b) Ground-truth (GT). (c–h) The classification maps with disparate algorithms.

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Table 8.

The classification results for the WHLK dataset with 0.2% training samples.

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Table 8 Expand

Fig 14.

Classification maps for the IP dataset using 5% training samples.

(a) False-color image. (b) Ground-truth (GT). (c–h) The classification maps with disparate algorithms.

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Fig 14 Expand

Table 9.

The classification results for the IP dataset with 5% training samples.

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Table 10.

Parameter, FLOPs and runing time(s) of different methods for the four data sets.

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Fig 15.

Accuracy of different methods with different numbers of training samples on UP.

(a) OA; (b) AA; (c) Kappa.

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Table 11.

Ablation experimental results of different sequential spatial channel combinations on the UP dataset.

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Table 12.

Ablation experimental results of different numbers of channels on the UP dataset.

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Fig 16.

The training accuracy and loss curves of SRU using different normalization methods on the UP dataset.

(a,b) BN. (c,d) LN. (e,f) IN. (g,h) SN. (i,j) GN.

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Table 13.

The training time of SRU using different normalization methods on the UP dataset.

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