Loss of early-life microbial diversity is correlated with diabetes, yet mechanisms by which microbes influence disease remain elusive. We report a critical neonatal window in mice when microbiota disruption results in lifelong metabolic consequences stemming from reduced β cell development. We show evidence for the existence of a similar program in humans and identify specific fungi and bacteria that are sufficient for β cell growth. The microbiota also plays an important role in seeding islet-resident macrophages, and macrophage depletion during development reduces β cells. Candida dubliniensis increases β cells in a macrophage-dependent manner through distinctive cell wall composition and reduces murine diabetes incidence. Provision of C. dubliniensis after β cell ablation or antibiotic treatment improves β cell function. These data identify fungi as critical early-life commensals that promote long-term metabolic health.
Neonatal fungi promote lifelong metabolic health through macrophage-dependent β cell development
新生儿真菌通过巨噬细胞依赖性β细胞发育促进终身代谢健康。
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作者:Jennifer Hampton Hill ,Rickesha Bell ,Logan Barrios ,Halli Baird ,Kyla Ost ,Morgan Greenewood ,Josh K Monts ,Erin Tracy ,Casey H Meili ,Tyson R Chiaro ,Allison M Weis ,Karen Guillemin ,Anna E Beaudin ,L Charles Murtaugh ,W Zac Stephens ,June L Round
| 期刊: | Science | 影响因子: | 44.700 |
| 时间: | 2025 | 起止号: | 2025 Mar 7;387(6738):eadn0953. |
| doi: | 10.1126/science.adn0953 | 研究方向: | 代谢 |
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