新冠肺炎生物标志物鉴定中的质谱和机器学习

L. C. Lázari, Gilberto Santos de Oliveira, Janaina Macedo-da-Silva, L. Rosa-Fernandes, G. Palmisano
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引用次数: 0

摘要

识别新冠肺炎的特定诊断和预后生物标志物可以改善疾病监测和治疗机会。质谱法与机器和深度学习技术相结合,已被用于识别可作为治疗靶点的途径。此外,循环生物标志物已被确定用于检测感染严重急性呼吸系统综合征冠状病毒2型和住院风险高的个体。在这篇综述中,我们调查了基于质谱的组学技术(蛋白质组学、脂组学和代谢组学)和机器学习/深度学习相结合的研究,以了解新冠肺炎的发病机制。在文献检索后,我们展示了42项研究,这些研究应用了可重复、准确和敏感的基于质谱的分析技术和机器/深度学习方法来发现和验证新冠肺炎生物标志物。我们还证明了多组学数据产生了具有更高性能的分类模型。此外,我们将重点放在MALDI-TOF质谱法和机器学习的结合上,将其作为一种已经在临床上存在的诊断和预后工具。最后,我们重申,尽管在该领域取得了进展,但在分析和计算部分进行更多优化,如样品制备、数据采集和数据分析,将改进可用于获得更准确诊断和预后工具的生物标志物。
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Mass spectrometry and machine learning in the identification of COVID-19 biomarkers
Identifying specific diagnostic and prognostic biological markers of COVID-19 can improve disease surveillance and therapeutic opportunities. Mass spectrometry combined with machine and deep learning techniques has been used to identify pathways that could be targeted therapeutically. Moreover, circulating biomarkers have been identified to detect individuals infected with SARS-CoV-2 and at high risk of hospitalization. In this review, we have surveyed studies that have combined mass spectrometry-based omics techniques (proteomics, lipdomics, and metabolomics) and machine learning/deep learning to understand COVID-19 pathogenesis. After a literature search, we show 42 studies that applied reproducible, accurate, and sensitive mass spectrometry-based analytical techniques and machine/deep learning methods for COVID-19 biomarker discovery and validation. We also demonstrate that multiomics data results in classification models with higher performance. Furthermore, we focus on the combination of MALDI-TOF Mass Spectrometry and machine learning as a diagnostic and prognostic tool already present in the clinics. Finally, we reiterate that despite advances in this field, more optimization in the analytical and computational parts, such as sample preparation, data acquisition, and data analysis, will improve biomarkers that can be used to obtain more accurate diagnostic and prognostic tools.
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