Deep learning methodologies for spitzoid melanocytic tumor characterization

Laëtitia Launet, Adrián Colomer, Valery Naranjo
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Abstract

The digitization of biopsies into high-resolution whole-slide images has opened the way to artificial intelligence methods in pathology. While histopathological analysis of biopsies remains the gold standard for cancer diagnosis, deep learning holds great potential in reducing pathologist workload and enhancing diagnosis. This can be particularly crucial for tumors with ambiguous morphological features like spitzoid melanocytic lesions, where these methods could greatly improve their clinical interpretation. However, implementing deep learning in digital pathology presents various challenges, encompassing image complexity, limited training data, and the scarcity of annotated samples. Rare cancers can find these limitations amplified, considerably hampering progress in this area. In this work, we aim to tackle the clinical ambiguity surrounding spitzoid melanocytic tumors while addressing the complexities inherent in whole-slide images by leveraging deep learning techniques. To do so, we propose a comprehensive approach combining weakly-supervised learning, federated learning, and active self-training. The developed approaches have been carefully optimized in collaboration with expert pathologists under real-world conditions, to ensure their effectiveness and applicability in clinical settings. By advancing our understanding and utilization of artificial intelligence in digital pathology, we aim to pave the way for improved cancer diagnosis and treatment, particularly in the challenging realm of spitzoid tumors.

深度学习方法用于斑点状黑素细胞肿瘤特征描述
将活体组织切片数字化为高分辨率全切片图像为病理学中的人工智能方法开辟了道路。虽然活检组织病理学分析仍是癌症诊断的黄金标准,但深度学习在减少病理学家工作量和提高诊断水平方面潜力巨大。这对于具有模糊形态学特征的肿瘤(如斑点状黑素细胞病变)尤为重要,这些方法可以大大提高临床解释能力。然而,在数字病理学中实施深度学习面临着各种挑战,包括图像的复杂性、训练数据的有限性以及注释样本的稀缺性。罕见癌症会发现这些限制因素被放大,大大阻碍了这一领域的进展。在这项工作中,我们的目标是利用深度学习技术,在解决整张幻灯片图像固有的复杂性的同时,解决围绕棘黑色素细胞肿瘤的临床模糊性问题。为此,我们提出了一种结合弱监督学习、联合学习和主动自我训练的综合方法。我们与病理专家合作,在实际条件下对所开发的方法进行了精心优化,以确保其在临床环境中的有效性和适用性。通过推进我们对数字病理学中人工智能的理解和利用,我们的目标是为改进癌症诊断和治疗铺平道路,尤其是在具有挑战性的棘细胞瘤领域。
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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