Pre-conceptional paternal diet impacts on offspring testosterone homoeostasis via epigenetic modulation of cyp19a1/aromatase activity

Arianna Pastore, Nadia Badolati, Francesco Manfrevola, Serena Sagliocchi, Valentina Laurenzi, Giorgia Musto, Veronica Porreca, Melania Murolo, Teresa Chioccarelli, Roberto Ciampaglia, Valentina Vellecco, Mariarosaria Bucci, Monica Dentice, Gilda Cobellis, Mariano Stornaiuolo
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Abstract

Paternal eating habits, before and at conception, have a strong impact on offspring future metabolism. By sending specific epigenetic signals through spermatozoa, paternal nutrition influences developing embryos and increases offspring risk of developing dysmetabolism and cardiovascular diseases. Among the intergenerational consequences, paternal epigenetic messages affect embryo DNA methylation altering programmed gene expression. The identification of offspring genetic loci that are epigenetically altered by paternal stimuli is of pivotal interest for timely post-natal treatment of offspring metabolic defects. We here use a murine model to show that, cyp19a1/aromatase, a gene coding for the cytochrome converting testosterone into 17-β estradiol (both potent hormonal mediators of embryo development and metabolism), is an epigenetic transducer of paternal intergenerational inheritance. By affecting cyp19a1 methylation status and alternative splicing, paternal diet coordinates androgens’ metabolism in the progeny affecting it in a sexually dimorphic way and promoting hypoandrogenism, growth retardation and diabetes in male pups.

Abstract Image

父亲受孕前的饮食通过对cyp19a1/aromatase活性的表观遗传调节影响后代的睾酮稳态
父亲在受孕前和受孕时的饮食习惯对后代未来的新陈代谢有很大影响。父亲的营养通过精子发出特定的表观遗传信号,影响发育中的胚胎,增加后代患代谢紊乱和心血管疾病的风险。在代际后果中,父亲的表观遗传信息会影响胚胎的 DNA 甲基化,改变程序基因的表达。确定受父代刺激而发生表观遗传改变的子代基因位点,对及时治疗子代代谢缺陷具有重要意义。我们在此利用小鼠模型证明,cyp19a1/aromatase(一种编码将睾酮转化为 17-β 雌二醇(两者都是胚胎发育和代谢的强效激素介质)的细胞色素的基因)是父系代际遗传的表观遗传转换器。通过影响 cyp19a1 的甲基化状态和替代剪接,父亲的饮食会协调后代的雄性激素代谢,以性别二态的方式影响后代,并促进雄性幼崽的雄性激素过低、生长迟缓和糖尿病。
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