Statistical analysis in metabolic phenotyping

被引:0
|
作者
Benjamin J. Blaise
Gonçalo D. S. Correia
Gordon A. Haggart
Izabella Surowiec
Caroline Sands
Matthew R. Lewis
Jake T. M. Pearce
Johan Trygg
Jeremy K. Nicholson
Elaine Holmes
Timothy M. D. Ebbels
机构
[1] Imperial College London,Division of Systems Medicine, Department of Metabolism, Digestion & Reproduction, Faculty of Medicine
[2] Guy’s and St Thomas’ NHS Foundation Trust,Department of Paediatric Anaesthetics, Evelina London Children’s Hospital
[3] King’s College London,Centre for the Developing Brain
[4] Imperial College London,National Phenome Centre, Department of Metabolism, Digestion & Reproduction, Faculty of Medicine
[5] Umeå University,Computational Life Science Cluster, Department of Chemistry
[6] Sartorius Stedim Data Analytics,Sartorius Corporate Research
[7] Murdoch University,Australian National Phenome Centre, Health Futures Institute
[8] Imperial College London,Institute of Global Health Innovation
[9] Murdoch University,Centre for Computational & Systems Medicine Institute of Health Futures
来源
Nature Protocols | 2021年 / 16卷
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摘要
Metabolic phenotyping is an important tool in translational biomedical research. The advanced analytical technologies commonly used for phenotyping, including mass spectrometry (MS) and nuclear magnetic resonance (NMR) spectroscopy, generate complex data requiring tailored statistical analysis methods. Detailed protocols have been published for data acquisition by liquid NMR, solid-state NMR, ultra-performance liquid chromatography (LC-)MS and gas chromatography (GC-)MS on biofluids or tissues and their preprocessing. Here we propose an efficient protocol (guidelines and software) for statistical analysis of metabolic data generated by these methods. Code for all steps is provided, and no prior coding skill is necessary. We offer efficient solutions for the different steps required within the complete phenotyping data analytics workflow: scaling, normalization, outlier detection, multivariate analysis to explore and model study-related effects, selection of candidate biomarkers, validation, multiple testing correction and performance evaluation of statistical models. We also provide a statistical power calculation algorithm and safeguards to ensure robust and meaningful experimental designs that deliver reliable results. We exemplify the protocol with a two-group classification study and data from an epidemiological cohort; however, the protocol can be easily modified to cover a wider range of experimental designs or incorporate different modeling approaches. This protocol describes a minimal set of analyses needed to rigorously investigate typical datasets encountered in metabolic phenotyping.
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页码:4299 / 4326
页数:27
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