Quantitative clinical risk assessment of CYP2C, UDP-glucuronosyltransferase, P-glycoprotein induction, and complex drug-drug interactions using TruVivo human hepatocyte triculture platform.

IF 4.4 3区 医学 Q1 PHARMACOLOGY & PHARMACY
Diane Ramsden, Cody L Fullenwider, Cipriano Santos, Edward L LeCluyse
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引用次数: 0

Abstract

Quantitative prediction and clinical risk assessment for induction of drug-metabolizing enzymes and transporters beyond CYP3A has been hindered by low dynamic response in the gold standard hepatocyte monoculture model. A gap in translation of the drug-drug interaction (DDI) potential of a compound is particularly apparent when an inducer also inhibits CYP3A, leading to uncertainty in the potential net clinical outcome for CYP3A substrates. In addition, enzymes such as CYP2C8, CYP2C9, CYP2C19, UGT1A4, and P-glycoprotein, which are coregulated with CYP3A, may result in clinically relevant induction that cannot be derisked by conducting clinical interaction studies with CYP3A substrates. Identification of an in vitro model that demonstrates consistent and well defined induction of enzymes and transporters beyond CYP3A would open the opportunity to avoid unnecessary clinical interaction studies and subsequently have high value in the drug discovery and development toolbox. The TruVivo model is a novel all-human primary cell model, containing hepatocytes plus stromal and epithelial feeder cells. Within these studies, the TruVivo model was validated as a predictive tool for clinical risk assessment for induction of CYP2C8, CYP2C9, CYP2C19, CYP3A4, UGT1A4, and P-glycoprotein using known clinical inducers. Exploration into the utility of TruVivo to delineate complex DDI involving coinducers/inhibitors was also conducted and showed immense opportunity, demonstrating the value of in situ DDI experiments when clinically relevant levels of precipitant and object drugs are used. These data highlight the potential of this in vitro tool to model induction and complex DDI. SIGNIFICANCE STATEMENT: Clinical risk assessment for induction of enzymes and transporters coregulated with CYP3A, including the CYP2C enzymes, UDP-glucuronosyltransferases, and P-gp has been hampered by the low dynamic response of available in vitro models. These studies aimed to validate a novel all-human hepatocyte model, TruVivo, as a predictive tool for induction-based DDI. In addition, the model was evaluated for in situ prediction of complex DDI and shows promise in predicting net clinical outcomes for several inducers/inhibitors against selective and nonselective CYP3A substrates.

由于在金标准肝细胞单培养模型中的动态响应较低,对 CYP3A 以外的药物代谢酶和转运体诱导的定量预测和临床风险评估一直受到阻碍。当诱导剂同时抑制 CYP3A 时,化合物的药物相互作用(DDI)潜力的转化差距尤为明显,从而导致 CYP3A 底物的潜在净临床结果的不确定性。此外,CYP2C8、CYP2C9、CYP2C19、UGT1A4 和 P-glycoprotein 等与 CYP3A 核心配位的酶可能会导致与临床相关的诱导,而这种诱导无法通过与 CYP3A 底物进行临床相互作用研究来消除风险。如果能确定一种体外模型,对 CYP3A 之外的酶和转运体进行一致且明确的诱导,就有机会避免不必要的临床相互作用研究,从而在药物发现和开发工具箱中具有很高的价值。TruVivo 模型是一种新型的全人原代细胞模型,包含肝细胞以及基质和上皮馈源细胞。在这些研究中,TruVivo 模型作为临床风险评估的预测工具得到了验证,可使用已知的临床诱导剂诱导 CYP2C8、CYP2C9、CYP2C19、CYP3A4、UGT1A4 和 P 糖蛋白。此外,我们还探索了 TruVivo 在描述涉及共诱导剂/抑制剂的复杂 DDI 方面的实用性,并发现了巨大的商机,证明了在使用临床相关水平的诱导剂和目标药物时原位 DDI 实验的价值。这些数据凸显了这一体外工具在模拟诱导和复杂 DDI 方面的潜力。意义声明:由于现有体外模型的动态响应较低,因此无法对与 CYP3A 核心相关的酶和转运体(包括 CYP2C 酶、UDP-葡萄糖醛酸转移酶和 P-gp)的诱导进行临床风险评估。这些研究旨在验证新型全人肝细胞模型 TruVivo 作为基于诱导的 DDI 预测工具的有效性。此外,还对该模型进行了评估,以对复杂的 DDI 进行原位预测,结果显示该模型有望预测针对选择性和非选择性 CYP3A 底物的几种诱导剂/抑制剂的净临床结果。
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来源期刊
CiteScore
6.50
自引率
12.80%
发文量
128
审稿时长
3 months
期刊介绍: An important reference for all pharmacology and toxicology departments, DMD is also a valuable resource for medicinal chemists involved in drug design and biochemists with an interest in drug metabolism, expression of drug metabolizing enzymes, and regulation of drug metabolizing enzyme gene expression. Articles provide experimental results from in vitro and in vivo systems that bring you significant and original information on metabolism and disposition of endogenous and exogenous compounds, including pharmacologic agents and environmental chemicals.
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