Histopathology DatasetGAN: Synthesizing Large-Resolution Histopathology Datasets

S. Rizvi, P. Cicalese, S. Seshan, S. Sciascia, J. U.Becker, H. Nguyen
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Abstract

Deep learning-based methods have powered recent advancements in medical image segmentation, accelerating the field past previous statistical and Machine Learning-based methods [1]. This, however, has simultaneously created a need for large quantities of labeled data, which is difficult in domains such as medical imaging where labeling is expensive and requires expert knowledge. Semi-supervised learning (SSL) addresses these limitations by augmenting labeled data with large quantities of more widely available unlabeled data. Existing semi-supervised frameworks based on pseudo-labeling [2] or contrastive methods [3], however, struggle to scale to the high resolution of medical image datasets. In this work, we propose the Histopathology DatasetGAN (HDGAN) framework, an extension of the DatasetGAN framework for image generation and segmentation that scales well to large-resolution histopathology images. We make several adaptations on the original framework, including updating the generative backbone, selectively extracting latent features from the generator, and switching to memory-mapped arrays. These changes reduce the memory consumption of the framework, improving its applicability to medical imaging domains.
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组织病理学数据集:合成大分辨率组织病理学数据集
基于深度学习的方法推动了医学图像分割的最新进展,加速了以前基于统计和机器学习的方法[1]。然而,这同时产生了对大量标记数据的需求,这在医学成像等领域是困难的,因为标记昂贵且需要专业知识。半监督学习(SSL)通过使用大量更广泛可用的未标记数据来增加标记数据来解决这些限制。然而,现有的基于伪标记[2]或对比方法[3]的半监督框架难以扩展到高分辨率的医学图像数据集。在这项工作中,我们提出了组织病理学数据gan (HDGAN)框架,这是用于图像生成和分割的数据gan框架的扩展,可以很好地扩展到大分辨率组织病理学图像。我们对原始框架进行了一些调整,包括更新生成主干,有选择地从生成器中提取潜在特征,以及切换到内存映射数组。这些变化减少了框架的内存消耗,提高了其在医学成像领域的适用性。
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