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Evaluation of pharmacokinetic interactions between bicyclol and co-administered drugs in rat and human liver microsomes in vitro and in rats in vivo

机译:体外大鼠大鼠和人肝微粒体在大鼠和人肝微粒体中的药代动力学相互作用评价

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摘要

Bicyclol is a new synthetic anti-hepatitic drug and primarily metabolized by CYP3A. The aim of this study was to evaluate the pharmacokinetic interactions between bicyclol and co-administered drugs including metformin, pioglitazone, atorvastatin, fenofibrate, Cyclosporin A (CsA), and tacrolimus in rat and human liver microsomes (RLMs/HLMs) in vitro and in rats in vivo. The depletion rate of bicyclol in RLMs was significantly inhibited by 44.8% and 35.5% after preincubation with pioglitazone and fenofibrate while the metabolite formation rate of bicyclol in HLMs was inhibited by 26.1% and 23.9% after preincubation and coincubation with tacrolimus, and by 20.2% after preincubation with CsA. Conversely, preincubation and coincubation with bicyclol significantly inhibited the depletion rate of pioglitazone in RLMs by 34.1% and 27.1%, respectively, and the formation rate of para- and ortho-hydroxy atorvastatin in RLMs and HLMs by 20.6-36.2%. There were no significant pharmacokinetic interactions between bicyclol and pioglitazone in rats after a single or multiple oral treatment. As the selected inhibitory drug concentrations in vitro were significantly higher than those in clinical settings and the maximum inhibition rate did not exceed 50%, the clinically significant interaction between bicyclol and these co-administered drugs in humans is predicted less likely to happen.
机译:双环是一种新的合成抗肝炎药,主要由CYP3A代谢。本研究的目的是评估双环素和共聚药物之间的药代动力学相互作用,包括二甲双胍,吡格列酮,阿托伐他汀,芬伯酸酯,环孢菌素A(CSA)和大鼠和人肝微粒体(RLMS / HLMS)中的标准杆菌(RLMS / HLMS)大鼠体内。用Pioglitazone和芬纤维预孵育后,RLMS中双环的耗尽率显着抑制了44.8%和35.5%,而预孵育后的双环溶液在HLMS中的代谢物形成速率抑制了26.1%和23.9%,并用他克莫司凝结凝结,均为20.2%用CSA预孵育后。相反,与双环醇的预孵育和辛酸均显着抑制吡格列酮在RLMS中的耗尽率,分别为24.1%和27.1%,以及RLMS和HLMS中的比例和邻羟型阿托伐他汀的形成速率,达20.6-36.2%。在单一或多次口服处理后,大鼠中的双环和吡格列酮之间没有显着的药代动力学相互作用。由于所选抑制药物浓度明显高于临床环境的浓度,并且最大抑制率不超过50%,因此预测人类在人类中的临床上显着的相互作用和这些在人类中的这些共同施用的药物。

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