Cargando…
Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study
BACKGROUND AND OBJECTIVE: Clinical characteristics of obesity are heterogenous, but current classification for diagnosis is simply based on BMI or metabolic healthiness. The purpose of this study was to use machine learning to explore a more precise classification of obesity subgroups towards inform...
Autores principales: | , , , , , , , , , , , , , , |
---|---|
Formato: | Online Artículo Texto |
Lenguaje: | English |
Publicado: |
Frontiers Media S.A.
2021
|
Materias: | |
Acceso en línea: | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8317220/ https://www.ncbi.nlm.nih.gov/pubmed/34335479 http://dx.doi.org/10.3389/fendo.2021.713592 |
_version_ | 1783730028463259648 |
---|---|
author | Lin, Ziwei Feng, Wenhuan Liu, Yanjun Ma, Chiye Arefan, Dooman Zhou, Donglei Cheng, Xiaoyun Yu, Jiahui Gao, Long Du, Lei You, Hui Zhu, Jiangfan Zhu, Dalong Wu, Shandong Qu, Shen |
author_facet | Lin, Ziwei Feng, Wenhuan Liu, Yanjun Ma, Chiye Arefan, Dooman Zhou, Donglei Cheng, Xiaoyun Yu, Jiahui Gao, Long Du, Lei You, Hui Zhu, Jiangfan Zhu, Dalong Wu, Shandong Qu, Shen |
author_sort | Lin, Ziwei |
collection | PubMed |
description | BACKGROUND AND OBJECTIVE: Clinical characteristics of obesity are heterogenous, but current classification for diagnosis is simply based on BMI or metabolic healthiness. The purpose of this study was to use machine learning to explore a more precise classification of obesity subgroups towards informing individualized therapy. SUBJECTS AND METHODS: In a multi-center study (n=2495), we used unsupervised machine learning to cluster patients with obesity from Shanghai Tenth People’s hospital (n=882, main cohort) based on three clinical variables (AUCs of glucose and of insulin during OGTT, and uric acid). Verification of the clustering was performed in three independent cohorts from external hospitals in China (n = 130, 137, and 289, respectively). Statistics of a healthy normal-weight cohort (n=1057) were measured as controls. RESULTS: Machine learning revealed four stable metabolic different obese clusters on each cohort. Metabolic healthy obesity (MHO, 44% patients) was characterized by a relatively healthy-metabolic status with lowest incidents of comorbidities. Hypermetabolic obesity-hyperuricemia (HMO-U, 33% patients) was characterized by extremely high uric acid and a large increased incidence of hyperuricemia (adjusted odds ratio [AOR] 73.67 to MHO, 95%CI 35.46-153.06). Hypermetabolic obesity-hyperinsulinemia (HMO-I, 8% patients) was distinguished by overcompensated insulin secretion and a large increased incidence of polycystic ovary syndrome (AOR 14.44 to MHO, 95%CI 1.75-118.99). Hypometabolic obesity (LMO, 15% patients) was characterized by extremely high glucose, decompensated insulin secretion, and the worst glucolipid metabolism (diabetes: AOR 105.85 to MHO, 95%CI 42.00-266.74; metabolic syndrome: AOR 13.50 to MHO, 95%CI 7.34-24.83). The assignment of patients in the verification cohorts to the main model showed a mean accuracy of 0.941 in all clusters. CONCLUSION: Machine learning automatically identified four subtypes of obesity in terms of clinical characteristics on four independent patient cohorts. This proof-of-concept study provided evidence that precise diagnosis of obesity is feasible to potentially guide therapeutic planning and decisions for different subtypes of obesity. CLINICAL TRIAL REGISTRATION: www.ClinicalTrials.gov, NCT04282837. |
format | Online Article Text |
id | pubmed-8317220 |
institution | National Center for Biotechnology Information |
language | English |
publishDate | 2021 |
publisher | Frontiers Media S.A. |
record_format | MEDLINE/PubMed |
spelling | pubmed-83172202021-07-29 Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study Lin, Ziwei Feng, Wenhuan Liu, Yanjun Ma, Chiye Arefan, Dooman Zhou, Donglei Cheng, Xiaoyun Yu, Jiahui Gao, Long Du, Lei You, Hui Zhu, Jiangfan Zhu, Dalong Wu, Shandong Qu, Shen Front Endocrinol (Lausanne) Endocrinology BACKGROUND AND OBJECTIVE: Clinical characteristics of obesity are heterogenous, but current classification for diagnosis is simply based on BMI or metabolic healthiness. The purpose of this study was to use machine learning to explore a more precise classification of obesity subgroups towards informing individualized therapy. SUBJECTS AND METHODS: In a multi-center study (n=2495), we used unsupervised machine learning to cluster patients with obesity from Shanghai Tenth People’s hospital (n=882, main cohort) based on three clinical variables (AUCs of glucose and of insulin during OGTT, and uric acid). Verification of the clustering was performed in three independent cohorts from external hospitals in China (n = 130, 137, and 289, respectively). Statistics of a healthy normal-weight cohort (n=1057) were measured as controls. RESULTS: Machine learning revealed four stable metabolic different obese clusters on each cohort. Metabolic healthy obesity (MHO, 44% patients) was characterized by a relatively healthy-metabolic status with lowest incidents of comorbidities. Hypermetabolic obesity-hyperuricemia (HMO-U, 33% patients) was characterized by extremely high uric acid and a large increased incidence of hyperuricemia (adjusted odds ratio [AOR] 73.67 to MHO, 95%CI 35.46-153.06). Hypermetabolic obesity-hyperinsulinemia (HMO-I, 8% patients) was distinguished by overcompensated insulin secretion and a large increased incidence of polycystic ovary syndrome (AOR 14.44 to MHO, 95%CI 1.75-118.99). Hypometabolic obesity (LMO, 15% patients) was characterized by extremely high glucose, decompensated insulin secretion, and the worst glucolipid metabolism (diabetes: AOR 105.85 to MHO, 95%CI 42.00-266.74; metabolic syndrome: AOR 13.50 to MHO, 95%CI 7.34-24.83). The assignment of patients in the verification cohorts to the main model showed a mean accuracy of 0.941 in all clusters. CONCLUSION: Machine learning automatically identified four subtypes of obesity in terms of clinical characteristics on four independent patient cohorts. This proof-of-concept study provided evidence that precise diagnosis of obesity is feasible to potentially guide therapeutic planning and decisions for different subtypes of obesity. CLINICAL TRIAL REGISTRATION: www.ClinicalTrials.gov, NCT04282837. Frontiers Media S.A. 2021-07-14 /pmc/articles/PMC8317220/ /pubmed/34335479 http://dx.doi.org/10.3389/fendo.2021.713592 Text en Copyright © 2021 Lin, Feng, Liu, Ma, Arefan, Zhou, Cheng, Yu, Gao, Du, You, Zhu, Zhu, Wu and Qu https://creativecommons.org/licenses/by/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms. |
spellingShingle | Endocrinology Lin, Ziwei Feng, Wenhuan Liu, Yanjun Ma, Chiye Arefan, Dooman Zhou, Donglei Cheng, Xiaoyun Yu, Jiahui Gao, Long Du, Lei You, Hui Zhu, Jiangfan Zhu, Dalong Wu, Shandong Qu, Shen Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title | Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title_full | Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title_fullStr | Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title_full_unstemmed | Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title_short | Machine Learning to Identify Metabolic Subtypes of Obesity: A Multi-Center Study |
title_sort | machine learning to identify metabolic subtypes of obesity: a multi-center study |
topic | Endocrinology |
url | https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8317220/ https://www.ncbi.nlm.nih.gov/pubmed/34335479 http://dx.doi.org/10.3389/fendo.2021.713592 |
work_keys_str_mv | AT linziwei machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT fengwenhuan machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT liuyanjun machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT machiye machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT arefandooman machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT zhoudonglei machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT chengxiaoyun machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT yujiahui machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT gaolong machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT dulei machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT youhui machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT zhujiangfan machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT zhudalong machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT wushandong machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy AT qushen machinelearningtoidentifymetabolicsubtypesofobesityamulticenterstudy |