An interpretable machine learning model for precise prediction of biomarkers for intermittent fasting pattern

Intermittent fasting is currently a highly sought-after dietary pattern. To explore the potential biomarkers of intermittent fasting, untargeted metabolomics analysis of fecal metabolites in two groups of mice, intermittent fasting and normal feeding, was conducted using UPLC-HRMS. The data was further analyzed through interpretable machine learning (ML) to data mine the biomarkers for two dietary patterns. We developed five machine learning models and results showed that under three-fold cross-validation, Random Forest model was the most suitable for distinguishing the two dietary patterns. Finally, Shapely Additive exPlanations (SHAP) were explored to perform a weighted explanatory analysis on the Random Forest model, and the contribution of each metabolite to the model was calculated. Results indicated that Ganoderenic Acid C is the potential biomarkers to distinguish the two dietary patterns. Our work provides new insights for metabolic biomarker analysis and lays a theoretical foundation for the selection of a healthieir dietary lifestyle.

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Publication Details

Journal
Nutrition & Metabolism
Published
2024-12-18
DOI
https://doi.org/10.1186/s12986-024-00876-y
Citations
4
Primary Topic
Dietary Effects on Health
Type
article
Field-Weighted Citation Impact
1.31

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article

An interpretable machine learning model for precise prediction of biomarkers for intermittent fasting pattern

Feifei Sun, Xuan Ma, Yongning Wu, Xiaoli Hu et al.
4 citations
Nutrition & Metabolism
Dietary Effects on Health
1.31
article

An interpretable machine learning model for precise prediction of biomarkers for intermittent fasting pattern

Feifei Sun, Xuan Ma, Yongning Wu, Xiaoli Hu, Lin Li, Qingjun Xu
article en
4 citations

Abstract

Intermittent fasting is currently a highly sought-after dietary pattern. To explore the potential biomarkers of intermittent fasting, untargeted metabolomics analysis of fecal metabolites in two groups of mice, intermittent fasting and normal feeding, was conducted using UPLC-HRMS. The data was further analyzed through interpretable machine learning (ML) to data mine the biomarkers for two dietary patterns. We developed five machine learning models and results showed that under three-fold cross-validation, Random Forest model was the most suitable for distinguishing the two dietary patterns. Finally, Shapely Additive exPlanations (SHAP) were explored to perform a weighted explanatory analysis on the Random Forest model, and the contribution of each metabolite to the model was calculated. Results indicated that Ganoderenic Acid C is the potential biomarkers to distinguish the two dietary patterns. Our work provides new insights for metabolic biomarker analysis and lays a theoretical foundation for the selection of a healthieir dietary lifestyle.

Nutrition & MetabolismVol. 21(1)
Anhui Agricultural University (CN), China National Center for Food Safety Risk Assessment (CN), Innovation Team (China) (HK)
National Natural Science Foundation of China, Natural Science Foundation of Anhui Province
Openalex Percentile: Top 18%
Dietary Effects on Health
1.31
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An interpretable machine learning model for precise prediction of biomarkers for intermittent fasting pattern — Feifei Sun, Xuan Ma, et al. · Nutrition & Metabolism (2024) | TGRS Research Map | TGRS