Ibrahim Choucair, Deepthi P. Mallela, James R. Hilser, Jaana A. Hartiala, Ina Nemet, Valentin Gogonea, Lin Li, Aldons J. Lusis, Michael A. Fischbach, W. H. Wilson Tang, Hooman Allayee, Stanley L. Hazen
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Multiple 12α-hydroxylated BAs were associated with DM [adjusted odds ratios (aORs):1.3-1.9 (all P<0.05)] and insulin resistance [aORs:1.3-2.2 (all P<0.05)]. Conversely, multiple 6a-hydroxylated BAs and isolithocholic acid (Iso-LCA) were inversely associated with DM and obesity [aORs:0.3-0.9 (all P<0.05)]. Genome-wide association studies (GWAS) revealed multiple genome-wide significant loci linked with nine of the 14 DM-associated BAs, including a locus for Iso-LCA (rs11866815). Mendelian randomization analyses showed genetically elevated DCA levels were causally associated with higher BMI, and Iso-LCA levels were causally associated with reduced BMI and DM risk. 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引用次数: 0
摘要
胆汁酸(BA)是一种胆固醇衍生化合物,可调节葡萄糖、脂质和能量代谢。尽管胆汁酸在葡萄糖稳态中具有重要作用,但特定胆汁酸分子种类及其合成途径与糖尿病(DM)之间的关系尚不清楚。在这里,我们使用最近验证的稳定同位素稀释高效液相色谱-串联质谱(LC-MS/MS)方法定量检测了受试者(n=2,145)空腹血浆中的一组 BAs,并探讨了与 DM、胰岛素抵抗和肥胖有关的 BAs 结构和遗传决定因素。多种 12α- 羟基化 BA 与糖尿病[调整后的几率比(aORs):1.3-1.9(均为 P<0.05)]和胰岛素抵抗[aORs:1.3-2.2(均为 P<0.05)]有关。相反,多种 6a- 羟基化 BA 和异LCA 与 DM 和肥胖成反比[aORs:0.3-0.9(均为 P<0.05)]。全基因组关联研究(GWAS)揭示了与14种DM相关BA中的9种相关的多个全基因组显著位点,其中包括一个异LCA位点(rs11866815)。孟德尔随机分析表明,DCA水平的遗传升高与较高的BMI有因果关系,而Iso-LCA水平的遗传升高与较低的BMI和DM风险有因果关系。总之,全面的大规模定量质谱分析和遗传学分析表明,循环中多种结构特殊的BA(尤其是DCA和Iso-LCA)水平与肥胖和DM有临床相关性和遗传相关性。
Comprehensive clinical and genetic analyses of circulating bile acids and their associations with diabetes and its indices
Bile acids (BAs) are cholesterol-derived compounds that regulate glucose, lipid, and energy metabolism. Despite their significance in glucose homeostasis, the association between specific BA molecular species and their synthetic pathways with diabetes mellitus (DM) is unclear. Here, we used a recently validated stable-isotope dilution highperformance liquid chromatography with tandem mass spectrometry (LC-MS/MS) method to quantify a panel of BAs in fasting plasma from subjects (n=2,145) and explored structural and genetic determinants of BAs linked to DM, insulin resistance and obesity. Multiple 12α-hydroxylated BAs were associated with DM [adjusted odds ratios (aORs):1.3-1.9 (all P<0.05)] and insulin resistance [aORs:1.3-2.2 (all P<0.05)]. Conversely, multiple 6a-hydroxylated BAs and isolithocholic acid (Iso-LCA) were inversely associated with DM and obesity [aORs:0.3-0.9 (all P<0.05)]. Genome-wide association studies (GWAS) revealed multiple genome-wide significant loci linked with nine of the 14 DM-associated BAs, including a locus for Iso-LCA (rs11866815). Mendelian randomization analyses showed genetically elevated DCA levels were causally associated with higher BMI, and Iso-LCA levels were causally associated with reduced BMI and DM risk. In conclusion, comprehensive large-scale quantitative mass spectrometry and genetics analyses show circulating levels of multiple structurally specific BAs, especially DCA and Iso-LCA, are clinically associated with and genetically linked to obesity and DM.
期刊介绍:
Diabetes is a scientific journal that publishes original research exploring the physiological and pathophysiological aspects of diabetes mellitus. We encourage submissions of manuscripts pertaining to laboratory, animal, or human research, covering a wide range of topics. Our primary focus is on investigative reports investigating various aspects such as the development and progression of diabetes, along with its associated complications. We also welcome studies delving into normal and pathological pancreatic islet function and intermediary metabolism, as well as exploring the mechanisms of drug and hormone action from a pharmacological perspective. Additionally, we encourage submissions that delve into the biochemical and molecular aspects of both normal and abnormal biological processes.
However, it is important to note that we do not publish studies relating to diabetes education or the application of accepted therapeutic and diagnostic approaches to patients with diabetes mellitus. Our aim is to provide a platform for research that contributes to advancing our understanding of the underlying mechanisms and processes of diabetes.