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用于多种暴露途径的毒死蜱生理药代动力学/药效学模型。

Chlorpyrifos PBPK/PD model for multiple routes of exposure.

作者信息

Poet Torka S, Timchalk Charles, Hotchkiss Jon A, Bartels Michael J

机构信息

Summit Toxicology , Richland, WA , USA .

出版信息

Xenobiotica. 2014 Oct;44(10):868-81. doi: 10.3109/00498254.2014.918295. Epub 2014 May 19.

DOI:10.3109/00498254.2014.918295
PMID:24839995
Abstract
  1. Chlorpyrifos (CPF) is an important pesticide used to control crop insects. Human Exposures to CPF will occur primarily through oral exposure to residues on foods. A physiologically based pharmacokinetic/pharmacodynamic (PBPK/PD) model has been developed that describes the relationship between oral, dermal and inhalation doses of CPF and key events in the pathway for cholinergic effects. The model was built on a prior oral model that addressed age-related changes in metabolism and physiology. This multi-route model was developed in rats and humans to validate all scenarios in a parallelogram design. 2. Critical biological effects from CPF exposure require metabolic activation to CPF oxon, and small amounts of metabolism in tissues will potentially have a great effect on pharmacokinetics and pharmacodynamic outcomes. Metabolism (bioactivation and detoxification) was therefore added in diaphragm, brain, lung and skin compartments. Pharmacokinetic data are available for controlled human exposures via the oral and dermal routes and from oral and inhalation studies in rats. The validated model was then used to determine relative dermal versus inhalation uptake from human volunteers exposed to CPF in an indoor scenario.
摘要
  1. 毒死蜱(CPF)是一种用于控制农作物害虫的重要杀虫剂。人类接触毒死蜱主要通过口服食物上的残留。已建立了一个基于生理学的药代动力学/药效学(PBPK/PD)模型,该模型描述了毒死蜱的口服、皮肤和吸入剂量与胆碱能效应途径中的关键事件之间的关系。该模型建立在先前的口服模型基础上,该口服模型考虑了与年龄相关的代谢和生理变化。这个多途径模型在大鼠和人类中开发,以在平行四边形设计中验证所有情况。2. 毒死蜱暴露产生的关键生物学效应需要代谢活化生成毒死蜱氧磷,并且组织中的少量代谢可能会对药代动力学和药效学结果产生很大影响。因此,在膈肌、脑、肺和皮肤隔室中加入了代谢(生物活化和解毒)过程。有通过口服和皮肤途径进行的受控人体暴露以及大鼠口服和吸入研究的药代动力学数据。然后,使用经过验证的模型来确定在室内场景中接触毒死蜱的人类志愿者的皮肤与吸入相对摄取量。

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