Cross-Species Data Integration for Enhanced Layer Segmentation in Kidney Pathology

Fuente: arXiv
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Autori principali: Zhu, Junchao, Yin, Mengmeng, Deng, Ruining, Long, Yitian, Wang, Yu, Wang, Yaohong, Zhao, Shilin, Yang, Haichun, Huo, Yuankai
Natura: Preprint
Pubblicazione: 2024
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author Zhu, Junchao
Yin, Mengmeng
Deng, Ruining
Long, Yitian
Wang, Yu
Wang, Yaohong
Zhao, Shilin
Yang, Haichun
Huo, Yuankai
author_facet Zhu, Junchao
Yin, Mengmeng
Deng, Ruining
Long, Yitian
Wang, Yu
Wang, Yaohong
Zhao, Shilin
Yang, Haichun
Huo, Yuankai
contents Accurate delineation of the boundaries between the renal cortex and medulla is crucial for subsequent functional structural analysis and disease diagnosis. Training high-quality deep-learning models for layer segmentation relies on the availability of large amounts of annotated data. However, due to the patient's privacy of medical data and scarce clinical cases, constructing pathological datasets from clinical sources is relatively difficult and expensive. Moreover, using external natural image datasets introduces noise during the domain generalization process. Cross-species homologous data, such as mouse kidney data, which exhibits high structural and feature similarity to human kidneys, has the potential to enhance model performance on human datasets. In this study, we incorporated the collected private Periodic Acid-Schiff (PAS) stained mouse kidney dataset into the human kidney dataset for joint training. The results showed that after introducing cross-species homologous data, the semantic segmentation models based on CNN and Transformer architectures achieved an average increase of 1.77% and 1.24% in mIoU, and 1.76% and 0.89% in Dice score for the human renal cortex and medulla datasets, respectively. This approach is also capable of enhancing the model's generalization ability. This indicates that cross-species homologous data, as a low-noise trainable data source, can help improve model performance under conditions of limited clinical samples. Code is available at https://github.com/hrlblab/layer_segmentation.
format Preprint
id arxiv_https___arxiv_org_abs_2408_09278
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Cross-Species Data Integration for Enhanced Layer Segmentation in Kidney Pathology
Zhu, Junchao
Yin, Mengmeng
Deng, Ruining
Long, Yitian
Wang, Yu
Wang, Yaohong
Zhao, Shilin
Yang, Haichun
Huo, Yuankai
Image and Video Processing
Computer Vision and Pattern Recognition
Accurate delineation of the boundaries between the renal cortex and medulla is crucial for subsequent functional structural analysis and disease diagnosis. Training high-quality deep-learning models for layer segmentation relies on the availability of large amounts of annotated data. However, due to the patient's privacy of medical data and scarce clinical cases, constructing pathological datasets from clinical sources is relatively difficult and expensive. Moreover, using external natural image datasets introduces noise during the domain generalization process. Cross-species homologous data, such as mouse kidney data, which exhibits high structural and feature similarity to human kidneys, has the potential to enhance model performance on human datasets. In this study, we incorporated the collected private Periodic Acid-Schiff (PAS) stained mouse kidney dataset into the human kidney dataset for joint training. The results showed that after introducing cross-species homologous data, the semantic segmentation models based on CNN and Transformer architectures achieved an average increase of 1.77% and 1.24% in mIoU, and 1.76% and 0.89% in Dice score for the human renal cortex and medulla datasets, respectively. This approach is also capable of enhancing the model's generalization ability. This indicates that cross-species homologous data, as a low-noise trainable data source, can help improve model performance under conditions of limited clinical samples. Code is available at https://github.com/hrlblab/layer_segmentation.
title Cross-Species Data Integration for Enhanced Layer Segmentation in Kidney Pathology
topic Image and Video Processing
Computer Vision and Pattern Recognition
url https://arxiv.org/abs/2408.09278