Deep self-cleansing for medical image segmentation with noisy labels

IF 3.2 2区 医学 Q1 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING
Medical physics Pub Date : 2025-09-22 DOI:10.1002/mp.70007
Jiahua Dong, Yue Zhang, Qiuli Wang, Ruofeng Tong, Shihong Ying, Shaolin Gong, Xuanpu Zhang, Lanfen Lin, Yen-Wei Chen, Shaohua Kevin Zhou
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引用次数: 0

Abstract

Background

Medical image segmentation plays a pivotal role in medical imaging, significantly contributing to disease diagnosis and surgical planning. Traditional segmentation methods predominantly rely on supervised deep learning, where the accuracy of manually delineated labels is crucial for model performance. However, these labels often contain noise, such as missing annotations and imprecise boundaries, which can adversely affect the network's ability to accurately model target characteristics.

Purpose

This study aims to develop a robust segmentation framework capable of mitigating the impact of noisy labels during the training phase. The proposed framework is designed to preserve clean labels while cleansing noisy ones, thereby enhancing the overall segmentation accuracy.

Methods

We introduce a deep self-cleansing segmentation framework that incorporates two key modules as follows: a Gaussian Mixture Model (GMM)-based label filtering module (LFM) and a label cleansing module (LCM). The GMM-based LFM is employed to differentiate between noisy and clean labels. Subsequently, the LCM generates pseudo low-noise labels for the identified noisy samples. These pseudo-labels, along with the preserved clean labels, are then used to supervise the network training process.

Results

The framework was evaluated on a clinical liver tumor dataset (231 CT scans) and a public cardiac diagnosis dataset (200 MRI scans). Compared to baseline methods, our approach significantly improves segmentation performance, achieving a +7.31% boost in the B-model and a +12.36% improvement in the L-model. These results demonstrate the framework's ability to effectively suppress the interference of noisy labels and enhance segmentation accuracy. The method's capability to distinguish and cleanse noisy labels ensures more precise modeling of target structures, improving the robustness of the segmentation process.

Conclusions

The proposed deep self-cleansing segmentation framework offers a promising solution to the challenge of noisy labels in medical image segmentation. By integrating a GMM-based LFM and an LCM, the framework effectively preserves clean labels and generates pseudo low-noise labels, thereby improving the overall segmentation accuracy. The successful validation on both clinical and public datasets underscores the potential of this approach to enhance disease diagnosis and surgical planning in medical imaging.

Abstract Image

Abstract Image

基于噪声标签的医学图像分割的深度自清洁
医学图像分割在医学影像学中起着举足轻重的作用,对疾病诊断和手术计划有重要意义。传统的分割方法主要依赖于监督深度学习,其中人工描述标签的准确性对模型性能至关重要。然而,这些标签通常包含噪声,例如缺少注释和不精确的边界,这可能会对网络准确建模目标特征的能力产生不利影响。本研究旨在开发一种鲁棒的分割框架,能够在训练阶段减轻噪声标签的影响。该框架旨在保留干净的标签,同时去除噪声标签,从而提高整体分割精度。我们引入了一个深度自清洗分割框架,该框架包含以下两个关键模块:基于高斯混合模型(GMM)的标签过滤模块(LFM)和标签清洗模块(LCM)。基于gmm的LFM用于区分噪声标签和干净标签。随后,LCM为识别出的噪声样本生成伪低噪声标签。这些伪标签,连同保留的干净标签,然后用于监督网络训练过程。结果该框架在临床肝肿瘤数据集(231次CT扫描)和公共心脏诊断数据集(200次MRI扫描)上进行了评估。与基线方法相比,我们的方法显著提高了分割性能,在b模型中实现了+7.31%的提升,在l模型中实现了+12.36%的提升。这些结果表明,该框架能够有效地抑制噪声标签的干扰,提高分割精度。该方法能够区分和清除噪声标签,确保更精确地建模目标结构,提高分割过程的鲁棒性。结论提出的深度自清洁分割框架为解决医学图像分割中噪声标签的问题提供了一种很好的方法。该框架通过整合基于gmm的LFM和LCM,有效地保留了干净的标签,并生成伪低噪声标签,从而提高了整体的分割精度。在临床和公共数据集上的成功验证强调了这种方法在医学成像中增强疾病诊断和手术计划的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Medical physics
Medical physics 医学-核医学
CiteScore
6.80
自引率
15.80%
发文量
660
审稿时长
1.7 months
期刊介绍: Medical Physics publishes original, high impact physics, imaging science, and engineering research that advances patient diagnosis and therapy through contributions in 1) Basic science developments with high potential for clinical translation 2) Clinical applications of cutting edge engineering and physics innovations 3) Broadly applicable and innovative clinical physics developments Medical Physics is a journal of global scope and reach. By publishing in Medical Physics your research will reach an international, multidisciplinary audience including practicing medical physicists as well as physics- and engineering based translational scientists. We work closely with authors of promising articles to improve their quality.
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