生物
转录组
串扰
微生物群
遗传学
基因本体论
计算生物学
人口
基因
肠道菌群
餐后
肠道微生物群
生物信息学
候选基因
遗传变异
基因组学
寄主(生物学)
营养基因学
代谢组
代谢组学
全基因组关联研究
人类健康
人类粪便
肠道细菌
人体微生物群
代谢途径
进化生物学
遗传关联
等位基因
人类遗传变异
作者
Xiaoxu Li,Alessia Perino,Jonathan Sulc,Antoine Jalil,Giacomo von Alvensleben,Jean‐David Morel,Qi Wang,Alexis Rapin,Hao Li,Kristina Schoonjans,Johan Auwerx
标识
DOI:10.1038/s41467-025-67680-x
摘要
The gut microbiome is crucial in regulating overall physiology and communicates with the host through various microbial-derived metabolites, including secondary bile acids (BAs). However, mechanisms underlying the gut microbiome-BA crosstalk (gMxB) are still poorly understood. Here, we assess the postprandial cecal microbiome, BA levels, and colon transcriptome of male BXD mice fed with a chow or high-fat diet, and find that genetic and dietary factors shift microbiome composition and affect gMxB. Four diet-dependent co-mapping genetic loci associated with gMxB, including the interaction between Turicibacter sanguinis - plasma cholic acid, are identified using systems genetics approaches. By integrating human MiBioGen database, we prioritize PTGR1 and PTPRD as candidate genes potentially regulating identified gMxB. The human relevance of these candidates on metabolic health is investigated using data from the UK biobank, FinnGen, and million veteran program databases. Overall, this study illustrates potential modulators regulating gMxB and provides insights into gut microbiome-host communication.
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