Lithocholic acid phenocopies anti-ageing effects of calorie restriction

Qi Qu(Xiamen University), Yan Chen(Xiamen University), Yu Wang(Xiamen University), Shating Long(Xiamen University), Weiche Wang(Xiamen University), Heng-Ye Yang(Xiamen University), Mengqi Li(Xiamen University), Xiao Tian(Xiamen University), Xiaoyan Wei(Xiamen University), Yan‐Hui Liu(Xiamen University), Shengrong Xu(Xiamen University), Cixiong Zhang(Xiamen University), Mingxia Zhu(Xiamen University), Sin Man Lam(LipidALL Technologies (China)), Jianfeng Wu(Xiamen University), Chuyu Yun(Peking University), Junjie Chen(Xiamen University), Shengye Xue(Xiamen University), Baoding Zhang(Xiamen University), Zhong-Zheng Zheng(Xiamen University), Hai‐long Piao(Dalian Institute of Chemical Physics), Changtao Jiang(Peking University), Hao Guo(Xiamen University), Guanghou Shui(Chinese Academy of Sciences), Xianming Deng(Xiamen University), Chen‐Song Zhang(Xiamen University), Sheng‐Cai Lin(Xiamen University)
Nature
December 18, 2024
Cited by 80Open Access
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Abstract

Calorie restriction (CR) is a dietary intervention used to promote health and longevity1,2. CR causes various metabolic changes in both the production and the circulation of metabolites1; however, it remains unclear which altered metabolites account for the physiological benefits of CR. Here we use metabolomics to analyse metabolites that exhibit changes in abundance during CR and perform subsequent functional validation. We show that lithocholic acid (LCA) is one of the metabolites that alone can recapitulate the effects of CR in mice. These effects include activation of AMP-activated protein kinase (AMPK), enhancement of muscle regeneration and rejuvenation of grip strength and running capacity. LCA also activates AMPK and induces life-extending and health-extending effects in Caenorhabditis elegans and Drosophila melanogaster. As C. elegans and D. melanogaster are not able to synthesize LCA, these results indicate that these animals are able to transmit the signalling effects of LCA once administered. Knockout of AMPK abrogates LCA-induced phenotypes in all the three animal models. Together, we identify that administration of the CR-mediated upregulated metabolite LCA alone can confer anti-ageing benefits to metazoans in an AMPK-dependent manner. Lithocholic acid is one of the metabolites upregulated during calorie restriction, and treatment of mice, worms and flies with this bile acid alone can reproduce the health benefits of calorie restriction.


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