Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice

ABSTRACT Gut microbiota play important roles in host metabolism, especially in diabetes. However, why different diets lead to similar diabetic states despite being associated with different microbiota is not clear. Mice were fed two high-energy diets (HED) with the same energy density but different...

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Autores principales: Kai Shan, Hongyan Qu, Keru Zhou, Liangfang Wang, Congmin Zhu, Haiqin Chen, Zhennan Gu, Jing Cui, Guoling Fu, Jiaqi Li, Heyan Chen, Rong Wang, Yumin Qi, Wei Chen, Yong Q. Chen
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Publicado: American Society for Microbiology 2019
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Acceso en línea:https://doaj.org/article/8e5d10140e4c480580c70cad64dc5d6c
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spelling oai:doaj.org-article:8e5d10140e4c480580c70cad64dc5d6c2021-12-02T19:47:35ZDistinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice10.1128/mSystems.00219-192379-5077https://doaj.org/article/8e5d10140e4c480580c70cad64dc5d6c2019-10-01T00:00:00Zhttps://journals.asm.org/doi/10.1128/mSystems.00219-19https://doaj.org/toc/2379-5077ABSTRACT Gut microbiota play important roles in host metabolism, especially in diabetes. However, why different diets lead to similar diabetic states despite being associated with different microbiota is not clear. Mice were fed two high-energy diets (HED) with the same energy density but different fat-to-sugar ratios to determine the associations between the microbiota and early-stage metabolic syndrome. The two diets resulted in different microbiota but similar diabetic states. Interestingly, the microbial gene profiles were not significantly different, and many common metabolites were identified, including l-aspartic acid, cholestan-3-ol (5β, 3α), and campesterol, which have been associated with lipogenesis and inflammation. Our study suggests that different metabolic-syndrome-inducing diets may result in different microbiota but similar microbiomes and metabolomes. This suggests that the metagenome and metabolome are crucial for the prognosis and pathogenesis of obesity and metabolic syndrome. IMPORTANCE Various types of diet can lead to type 2 diabetes. The gut microbiota in type 2 diabetic patients are also different. So, two questions arise: whether there are any commonalities between gut microbiota induced by different pro-obese diets and whether these commonalities lead to disease. Here we found that high-energy diets with two different fat-to-sugar ratios can both cause obesity and prediabetes but enrich different gut microbiota. Still, these different gut microbiota have similar genetic and metabolite compositions. The microbial metabolites in common between the diets modulate lipid accumulation and macrophage inflammation in vivo and in vitro. This work suggests that studies that only use 16S rRNA amplicon sequencing to determine how the microbes respond to diet and associate with diabetic state are missing vital information.Kai ShanHongyan QuKeru ZhouLiangfang WangCongmin ZhuHaiqin ChenZhennan GuJing CuiGuoling FuJiaqi LiHeyan ChenRong WangYumin QiWei ChenYong Q. ChenAmerican Society for Microbiologyarticlehigh-energy dietprediabetesgut microbiotametagenomemetabolomeMicrobiologyQR1-502ENmSystems, Vol 4, Iss 5 (2019)
institution DOAJ
collection DOAJ
language EN
topic high-energy diet
prediabetes
gut microbiota
metagenome
metabolome
Microbiology
QR1-502
spellingShingle high-energy diet
prediabetes
gut microbiota
metagenome
metabolome
Microbiology
QR1-502
Kai Shan
Hongyan Qu
Keru Zhou
Liangfang Wang
Congmin Zhu
Haiqin Chen
Zhennan Gu
Jing Cui
Guoling Fu
Jiaqi Li
Heyan Chen
Rong Wang
Yumin Qi
Wei Chen
Yong Q. Chen
Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
description ABSTRACT Gut microbiota play important roles in host metabolism, especially in diabetes. However, why different diets lead to similar diabetic states despite being associated with different microbiota is not clear. Mice were fed two high-energy diets (HED) with the same energy density but different fat-to-sugar ratios to determine the associations between the microbiota and early-stage metabolic syndrome. The two diets resulted in different microbiota but similar diabetic states. Interestingly, the microbial gene profiles were not significantly different, and many common metabolites were identified, including l-aspartic acid, cholestan-3-ol (5β, 3α), and campesterol, which have been associated with lipogenesis and inflammation. Our study suggests that different metabolic-syndrome-inducing diets may result in different microbiota but similar microbiomes and metabolomes. This suggests that the metagenome and metabolome are crucial for the prognosis and pathogenesis of obesity and metabolic syndrome. IMPORTANCE Various types of diet can lead to type 2 diabetes. The gut microbiota in type 2 diabetic patients are also different. So, two questions arise: whether there are any commonalities between gut microbiota induced by different pro-obese diets and whether these commonalities lead to disease. Here we found that high-energy diets with two different fat-to-sugar ratios can both cause obesity and prediabetes but enrich different gut microbiota. Still, these different gut microbiota have similar genetic and metabolite compositions. The microbial metabolites in common between the diets modulate lipid accumulation and macrophage inflammation in vivo and in vitro. This work suggests that studies that only use 16S rRNA amplicon sequencing to determine how the microbes respond to diet and associate with diabetic state are missing vital information.
format article
author Kai Shan
Hongyan Qu
Keru Zhou
Liangfang Wang
Congmin Zhu
Haiqin Chen
Zhennan Gu
Jing Cui
Guoling Fu
Jiaqi Li
Heyan Chen
Rong Wang
Yumin Qi
Wei Chen
Yong Q. Chen
author_facet Kai Shan
Hongyan Qu
Keru Zhou
Liangfang Wang
Congmin Zhu
Haiqin Chen
Zhennan Gu
Jing Cui
Guoling Fu
Jiaqi Li
Heyan Chen
Rong Wang
Yumin Qi
Wei Chen
Yong Q. Chen
author_sort Kai Shan
title Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
title_short Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
title_full Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
title_fullStr Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
title_full_unstemmed Distinct Gut Microbiota Induced by Different Fat-to-Sugar-Ratio High-Energy Diets Share Similar Pro-obesity Genetic and Metabolite Profiles in Prediabetic Mice
title_sort distinct gut microbiota induced by different fat-to-sugar-ratio high-energy diets share similar pro-obesity genetic and metabolite profiles in prediabetic mice
publisher American Society for Microbiology
publishDate 2019
url https://doaj.org/article/8e5d10140e4c480580c70cad64dc5d6c
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