Fine-grained image classification method and system, terminal equipment and storage medium
A classification method and a fine-grained technology, which is applied in the directions of instruments, calculations, character and pattern recognition, etc., can solve problems such as poor interpretability, difficult network optimization, and occupancy, so as to enhance performance, improve classification efficiency and classification accuracy, and improve The effect of feature diversity
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Embodiment 1
[0092] Such as figure 1 As shown, a fine-grained image classification method includes the following steps:
[0093] S1: Acquiring pictures to be classified;
[0094] S2: Input the picture to be classified into the pre-built diversity feature complementary fusion network, and use the diversity feature complementary fusion network to classify the picture;
[0095] Such as figure 2 As shown, the diversity feature complementary fusion network includes three significant and potential feature modules (Significance and Potential Feature Module, SPFM), and the three SPFM are respectively located at the end of residual module 3, residual module 4 and residual module 5 .
[0096] Such as image 3 As shown, SPFM includes a feature block structure, which can be divided along the width of the feature; a 1x1 convolutional layer, which mainly performs a dimensionality reduction process on the feature; and a feature containing the first parameter and the second parameter. The generalize...
Embodiment 2
[0171] A fine-grained classification method based on a complementary fusion network of diverse features, specifically implemented according to the following steps:
[0172] Step 1. First, the classified pictures are passed into the Diversity feature complementary fusion network (Diversity feature complementary fusion network, DFCF). SPFM) to output the salient feature X s , and the saliency suppression of the salient feature as the latent feature X p Continue to pass to the next layer of the network;
[0173] Step 2, the salient feature X extracted in step 1 s They are respectively passed into the 1x1 convolution Conv() module for one-dimensional transformation;
[0174] Step 3, import the features of the transformed dimensions in step 2 into the Feature exchange fusion module (Feature exchange fusion module, FEFM) to perform a feature fusion to enhance feature diversity;
[0175] Step 4. Perform the global average pooling operation on the output diversity features, and tr...
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