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Deep active learning for suggestive segmentation of biomedical image stacks via optimisation of Dice scores and traced boundary length.基于 Dice 评分和 traced 边界长度优化的生物医学图像堆栈提示分割的深度主动学习。
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Multi-scale organs image segmentation method improved by squeeze-and-attention based on partially supervised learning.基于部分监督学习的挤压注意力改进的多尺度器官图像分割方法。
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Multi-Organ Segmentation Over Partially Labeled Datasets With Multi-Scale Feature Abstraction.多器官分割在具有多尺度特征抽象的部分标记数据集上。
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基于部分标注的协同学习的网络条件设定

Network conditioning for synergistic learning on partial annotations.

作者信息

Billot Benjamin, Dey Neel, Turk Esra Abaci, Grant P Ellen, Golland Polina

机构信息

Massachusetts Institute of Technology, USA.

Boston Children's Hospital and Harvard Medical School, USA.

出版信息

Proc Mach Learn Res. 2024 Jul;250:119-130.

PMID:40893404
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC12393823/
Abstract

The robustness and accuracy of multi-organ segmentation networks is limited by the scarcity of labels. A common strategy to alleviate the annotation burden is to use partially labelled datasets, where each image can be annotated for a subset of all organs of interest. Unfortunately, this approach causes inconsistencies in the background class since it can now include target organs. Moreover, we consider the even more relaxed setting of region-based segmentation, where voxels can be labelled for super-regions, thus causing further inconsistencies across annotations. Here we propose CoNeMOS (Conditional Network for Multi-Organ Segmentation), a framework that leverages a label-conditioned network for synergistic learning on partially labelled region-based segmentations. Conditioning is achieved by combining convolutions with expressive Feature-wise Linear Modulation (FiLM) layers, whose parameters are controlled by an auxiliary network. In contrast to other conditioning methods, FiLM layers are stable to train and add negligible computation overhead, which enables us to condition the entire network. As a result, the network can where it needs to extract shared or label-specific features, instead of imposing it with the architecture (e.g., with different segmentation heads). By encouraging flexible synergies across labels, our method obtains state-of-the-art results for the segmentation of challenging low-resolution fetal MRI data. Our code is available at https://github.com/BBillot/CoNeMOS.

摘要

多器官分割网络的稳健性和准确性受到标签稀缺的限制。减轻标注负担的一种常见策略是使用部分标注的数据集,其中每个图像可以针对所有感兴趣器官的一个子集进行标注。不幸的是,这种方法会导致背景类中的不一致性,因为它现在可能包括目标器官。此外,我们考虑了基于区域分割的更宽松设置,其中体素可以针对超区域进行标注,从而在标注之间造成进一步的不一致性。在这里,我们提出了CoNeMOS(用于多器官分割的条件网络),这是一个利用标签条件网络对部分标注的基于区域的分割进行协同学习的框架。通过将卷积与具有表现力的逐特征线性调制(FiLM)层相结合来实现条件设定,其参数由一个辅助网络控制。与其他条件设定方法相比,FiLM层在训练时很稳定,并且增加的计算开销可以忽略不计,这使我们能够对整个网络进行条件设定。结果,网络可以在需要提取共享或特定于标签的特征的地方进行操作,而不是通过架构(例如,使用不同的分割头)来强制实现。通过鼓励跨标签的灵活协同作用,我们的方法在具有挑战性的低分辨率胎儿MRI数据分割方面取得了领先的结果。我们的代码可在https://github.com/BBillot/CoNeMOS上获取。