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首页> 外文期刊>Urological research >The construction of an oxalate-degrading intestinal stem cell population in mice: a potential new treatment option for patients with calcium oxalate calculus.
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The construction of an oxalate-degrading intestinal stem cell population in mice: a potential new treatment option for patients with calcium oxalate calculus.

机译:小鼠草酸盐降解肠干细胞群的构建:草酸钙结石患者的潜在新治疗选择。

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摘要

About 80% of all urological stones are calcium oxalate, mainly caused by idiopathic hyperoxaluria (IH). The increased absorption of oxalate from the intestine is the major factor underlying IH. The continuous self-renewal of the intestinal epithelium is due to the vigorous proliferation and differentiation of intestinal stem cells. If the intestinal stem cell population can acquire the ability to metabolize calcium oxalate by means of oxc and frc transgenes, this will prove a promising new therapy option for IH. In our research, the oxalate-degrading genes of Oxalobacter formigenes (Oxf)-the frc gene and oxc gene-were cloned and transfected into a cultured mouse-derived intestinal SC population to give the latter an oxalate-degrading function. Oxf was isolated and cultivated and the oxalate-degrading genes-frc and oxc-were cloned. The dicistronic eukaryotic expression vector pIRES-oxc-frc was constructed and transferred into the mouse stem cell population. After selection with G418, the expression of the genes was identified. The oxalate-degrading function of transfected cells was determined by transfection into the intestinal stem cell population of the mouse. The change in oxalate concentration was determined with an ion chromatograph. The recombinant plasmid containing oxc and frc genes was transfected into the stem cell population of the mouse and the expression of the genes found normal. The cell population had acquired an oxalate-degrading function. The oxc and frc genes could be transfected into the intestinal stem cell population of the mouse and the cells acquired an oxalate-degrading function.
机译:所有泌尿科结石中约80%为草酸钙,主要由特发性高草酸尿症(IH)引起。草酸从肠道吸收的增加是导致IH的主要因素。肠上皮细胞的持续自我更新归因于肠干细胞的旺盛增殖和分化。如果肠道干细胞群体能够通过oxc和frc转基因获得代谢草酸钙的能力,这将证明是一种有希望的IH新疗法。在我们的研究中,克隆了富氧草酸酶(Oxf)的草酸盐降解基因-frc基因和oxc基因,并将其转染到培养的小鼠肠道小肠SC群体中,从而赋予后者草酸盐降解功能。分离并培养Oxf,并克隆草酸盐降解基因frc和oxc。构建了双顺反子真核表达载体pIRES-oxc-frc,并将其转移到小鼠干细胞群中。用G418选择后,鉴定了基因的表达。通过转染到小鼠的肠干细胞群中来确定转染细胞的草酸盐降解功能。草酸盐浓度的变化通过离子色谱仪测定。将含有oxc和frc基因的重组质粒转染到小鼠的干细胞群体中,发现该基因的表达正常。细胞群已获得草酸盐降解功能。 oxc和frc基因可以转染到小鼠的肠道干细胞群体中,并且这些细胞具有降解草酸盐的功能。

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