CVAIAug 21, 2023

LDCSF: Local depth convolution-based Swim framework for classifying multi-label histopathology images

arXiv:2308.10446v14 citationsh-index: 22Has Code
Originality Synthesis-oriented
AI Analysis

This work addresses the need for improved digital diagnosis accuracy in computational pathology for liver cancer, though it appears incremental as it builds on existing transformer and convolution methods.

The paper tackled the problem of low classification accuracy for multi-label histopathology images in liver cancer diagnosis by proposing the LDCSF model, which achieved accuracies of 0.9460, 0.9960, 0.9808, and 0.9847 for different tissue types.

Histopathological images are the gold standard for diagnosing liver cancer. However, the accuracy of fully digital diagnosis in computational pathology needs to be improved. In this paper, in order to solve the problem of multi-label and low classification accuracy of histopathology images, we propose a locally deep convolutional Swim framework (LDCSF) to classify multi-label histopathology images. In order to be able to provide local field of view diagnostic results, we propose the LDCSF model, which consists of a Swin transformer module, a local depth convolution (LDC) module, a feature reconstruction (FR) module, and a ResNet module. The Swin transformer module reduces the amount of computation generated by the attention mechanism by limiting the attention to each window. The LDC then reconstructs the attention map and performs convolution operations in multiple channels, passing the resulting feature map to the next layer. The FR module uses the corresponding weight coefficient vectors obtained from the channels to dot product with the original feature map vector matrix to generate representative feature maps. Finally, the residual network undertakes the final classification task. As a result, the classification accuracy of LDCSF for interstitial area, necrosis, non-tumor and tumor reached 0.9460, 0.9960, 0.9808, 0.9847, respectively. Finally, we use the results of multi-label pathological image classification to calculate the tumor-to-stromal ratio, which lays the foundation for the analysis of the microenvironment of liver cancer histopathological images. Second, we released a multilabel histopathology image of liver cancer, our code and data are available at https://github.com/panliangrui/LSF.

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