癌症分子分型的数据挖掘

Sally Yepes, M. M. Torres
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引用次数: 3

摘要

鉴于具有相同组织病理学诊断的癌症患者临床行为的异质性,寻找未被识别的分子亚型、亚型特异性标记物并评估其临床生物学相关性是必要的。今天,这项任务得益于高通量基因组技术和免费获取国际基因组项目和信息库生成的数据集。事实证明,机器学习策略在识别大型数据集中隐藏的趋势方面非常有用,有助于理解癌症的分子机制和亚型。然而,将新的分子亚类和生物标志物转化为临床环境需要分析验证和临床试验来确定其临床效用。在这里,我们概述了识别和确认癌症亚型的工作流程,总结了各种方法学原则,并重点介绍了具有代表性的研究。关于最常见恶性肿瘤的公共大数据的产生正在把分子病理学变成一个数据库驱动的学科。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mining Datasets for Molecular Subtyping in Cancer
Given the heterogeneity in the clinical behavior of cancer patients with identical histopathological diagnosis, the search for unrecognized molecular subtypes, subtype-specific markers and the evaluation of their clinical-biological relevance are a necessity. This task is benefiting today from the high-throughput genomic technologies and free access to the datasets generated by the international genomic projects and the repositories of information. Machine learning strategies have proven to be useful in the identification of hidden trends in large datasets, contributing to the understanding of the molecular mechanisms and subtyping of cancer. However, the translation of new molecular subclasses and biomarkers into clinical settings requires their analytic validation and clinical trials to determine their clinical utility. Here, we provide an overview of the workflow to identify and confirm cancer subtypes, summarize a variety of methodological principles, and highlight representative studies. The generation of public big data on the most common malignancies is turning the molecular pathology into a database-driven discipline.
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