A microbiome-dependent gut-bone axis determines skeletal benefits from mechanical loading

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Abstract

A recent study published in Cell Metabolism entitled “Gut microbial alterations in arginine metabolism determine bone mechanical adaptation” demonstrated that administration of L-arginine enhanced bone mechanical adaptation by activating a nitric oxide-calcium feedback loop in osteocytes. The findings revealed that mechanical regulation of bone adaptation is associated with gut microbiota. The underlying cause of heterogeneity of bone mechanoresponsiveness was the significant difference in the composition of the gut microbiota, in which the family Lachnospiraceae contributed to the inter-individual high variability in bone mechanical adaptation. Additionally, administration of Lachnospiraceae exhibited increased expression levels of L-citrulline and L-arginine and enhanced bone mechanoresponsiveness in recipients. Collectively, this study provides mechanistic insights into inter-individual variability of the gut microbial, which is related to the heterogeneity of bone mechanical adaptation and provides a novel preventive and therapeutic strategy to anti-osteoporotic for maximizing bone mechanoresponsiveness via the microbiota-metabolite axis.

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依赖微生物群的肠道-骨骼轴决定了机械负荷对骨骼的益处
最近发表在《细胞新陈代谢》(Cell Metabolism)上的一项题为 "精氨酸代谢中的肠道微生物改变决定骨机械适应性 "的研究表明,通过激活骨细胞中的一氧化氮-钙反馈环路,服用 L-精氨酸可增强骨机械适应性。研究结果表明,骨适应的机械调节与肠道微生物群有关。造成骨机械适应性异质性的根本原因是肠道微生物群的组成存在显著差异,其中拉赫诺斯拉科微生物群导致了骨机械适应性的个体间高变异性。此外,给受试者服用拉赫诺斯皮拉科植物后,L-瓜氨酸和L-精氨酸的表达水平增加,骨机械适应性增强。总之,这项研究从机制上揭示了肠道微生物的个体间变异性与骨机械适应性的异质性之间的关系,并为通过微生物群-代谢物轴最大限度地提高骨机械适应性提供了一种新型的抗骨质疏松症预防和治疗策略。
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