利用深度学习从常规 H&E 染色切片中提高结直肠癌肿瘤芽检测能力

Usama Sajjad, Wei Chen, Mostafa Rezapour, Ziyu Su, Thomas Tavolara, Wendy L Frankel, Metin N Gurcan, M Khalid Khan Niazi
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引用次数: 0

摘要

肿瘤萌芽是指位于肿瘤浸润前沿的一至四个肿瘤细胞群。虽然肿瘤出芽是结直肠癌的预后因素之一,但对肿瘤出芽进行计数和分级非常耗时,而且可重复性不高。阅读者之间和阅读者内部对 H&E 评估的分歧可能很大。这导致了深度学习算法的噪声训练(不完美的地面实况),造成了高变异性,并失去了在未见过的数据集上泛化的能力。泛细胞角蛋白染色是增强一致性的潜在解决方案之一,但它并不常用于识别肿瘤芽,而且可能导致假阳性。因此,我们旨在开发一种弱监督深度学习方法,用于从常规 H&E 染色图像中检测肿瘤芽,该方法不需要严格的组织级注释。我们还提出了贝叶斯多实例学习(BMIL),在训练过程中结合多个注释区域,以进一步提高肿瘤芽检测的泛化能力和稳定性。我们的数据集由 29 张结直肠癌 H&E 染色图像组成,平均每张幻灯片包含 115 个肿瘤芽。在六倍交叉验证中,我们的方法的平均精确度和召回率分别为 0.94 和 0.86。这些结果初步证明了我们的方法在利用 H&E 图像提高肿瘤萌芽检测通用性方面的可行性,同时避免了对非例行免疫组化染色方法的需求。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhancing Colorectal Cancer Tumor Bud Detection Using Deep Learning from Routine H&E-Stained Slides.

Tumor budding refers to a cluster of one to four tumor cells located at the tumor-invasive front. While tumor budding is a prognostic factor for colorectal cancer, counting and grading tumor budding are time consuming and not highly reproducible. There could be high inter- and intra-reader disagreement on H&E evaluation. This leads to the noisy training (imperfect ground truth) of deep learning algorithms, resulting in high variability and losing their ability to generalize on unseen datasets. Pan-cytokeratin staining is one of the potential solutions to enhance the agreement, but it is not routinely used to identify tumor buds and can lead to false positives. Therefore, we aim to develop a weakly-supervised deep learning method for tumor bud detection from routine H&E-stained images that does not require strict tissue-level annotations. We also propose Bayesian Multiple Instance Learning (BMIL) that combines multiple annotated regions during the training process to further enhance the generalizability and stability in tumor bud detection. Our dataset consists of 29 colorectal cancer H&E-stained images that contain 115 tumor buds per slide on average. In six-fold cross-validation, our method demonstrated an average precision and recall of 0.94, and 0.86 respectively. These results provide preliminary evidence of the feasibility of our approach in improving the generalizability in tumor budding detection using H&E images while avoiding the need for non-routine immunohistochemical staining methods.

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