Development of a deep learning-based model to diagnose mixed-type gastric cancer accurately.

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Abstract

The accurate diagnosis of mixed-type gastric cancer from pathology images presents a formidable challenge for pathologists, given its intricate features and resemblance to other subtypes of gastric cancer. Artificial Intelligence has the potential to overcome this hurdle. This study aimed to leverage deep machine learning techniques to establish a precise and efficient diagnostic approach for this cancer type which can also predict the metastatic risk using two software, QuPath and U-Net, which have not been trialled in gastric cancers.Undifferentiated components from 186 pathology images of mixed-type gastric cancer were annotated using the open-source pathology imaging software QuPath. A U-Net neural network was trained to recognise, and segment differentiated components in the same images. The outcomes from QuPath and U-Net were used to calculate the ratio of differentiation/undifferentiated components which were correlated to lymph node metastasis.The models established by U-Net recognised ~91% of the regions of interest, with precision, recall, and F1 values of 90.2%, 90.9% and 94.6%, respectively, indicating a high level of accuracy and reliability. Furthermore, the receiver operating characteristic curve analysis showed an area under the cure of 91%, indicating good performance. A bell-curve correlation between the differentiated/undifferentiated ratio and lymphatic metastasis was found (highest risk between 0.683-1.03), which is paradigm-shifting.QuPath and U-Net exhibit promising accuracy in the identification of undifferentiated and differentiated components in mixed-type gastric cancer, as well as paradigm-shifting prediction of metastasis. These findings bring us one step closer to their potential clinical application.Copyright © 2023. Published by Elsevier Ltd.

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