使用EpiAirway体外人气道模型进行急性吸入毒性试验的预验证。

Q2 Health Professions Applied In Vitro Toxicology Pub Date : 2018-06-01 DOI:10.1089/aivt.2018.0004
George R Jackson, Anna G Maione, Mitchell Klausner, Patrick J Hayden
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引用次数: 34

摘要

简介:了解急性吸入毒性潜力对建立化学品和消费品的安全使用是重要的。目前世界各国政府监管系统所接受的吸入毒性试验和分类程序主要依靠在动物身上进行的试验。当前工作的目标是开发和预验证一种非动物(体外)试验,以确定急性吸入毒性,使用EpiAirway™体外人气道模型作为目前接受的动物试验的潜在替代方案。材料和方法:体外测试方法将EpiAirway组织暴露于测试化学物质中3小时,然后测量组织活力作为测试终点。对59种化学物质进行了评估,涵盖了广泛的毒性类别、化学结构和物理性质。利用体外毒性数据建立预测模型,根据目前公认的全球统一体系(GHS)和美国环境保护署(EPA)体系对化学物质进行分类。结果:EpiAirway预测模型对GHS和EPA急性吸入毒性系统的体内大鼠急性吸入毒性1-2类和1- ii类化学物质的敏感性和特异性分别为100%,分别为43.1%和50.0%。EpiAirway预测模型识别GHS特异性靶器官毒性-单暴露(STOT-SE) 1类人体毒物的敏感性和特异性分别为75.0%和56.5%。腐蚀性、亲电性和氧化性似乎是大多数剧毒化学品的主要毒性机制。结论:这些结果表明EpiAirway试验是目前公认的急性吸入毒性动物试验的一个有希望的替代方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Prevalidation of an Acute Inhalation Toxicity Test Using the EpiAirway In Vitro Human Airway Model.

Introduction: Knowledge of acute inhalation toxicity potential is important for establishing safe use of chemicals and consumer products. Inhalation toxicity testing and classification procedures currently accepted within worldwide government regulatory systems rely primarily on tests conducted in animals. The goal of the current work was to develop and prevalidate a nonanimal (in vitro) test for determining acute inhalation toxicity using the EpiAirway™ in vitro human airway model as a potential alternative for currently accepted animal tests. Materials and Methods: The in vitro test method exposes EpiAirway tissues to test chemicals for 3 hours, followed by measurement of tissue viability as the test endpoint. Fifty-nine chemicals covering a broad range of toxicity classes, chemical structures, and physical properties were evaluated. The in vitro toxicity data were utilized to establish a prediction model to classify the chemicals into categories corresponding to the currently accepted Globally Harmonized System (GHS) and the Environmental Protection Agency (EPA) system. Results: The EpiAirway prediction model identified in vivo rat-based GHS Acute Inhalation Toxicity Category 1-2 and EPA Acute Inhalation Toxicity Category I-II chemicals with 100% sensitivity and specificity of 43.1% and 50.0%, for GHS and EPA acute inhalation toxicity systems, respectively. The sensitivity and specificity of the EpiAirway prediction model for identifying GHS specific target organ toxicity-single exposure (STOT-SE) Category 1 human toxicants were 75.0% and 56.5%, respectively. Corrosivity and electrophilic and oxidative reactivity appear to be the predominant mechanisms of toxicity for the most highly toxic chemicals. Conclusions: These results indicate that the EpiAirway test is a promising alternative to the currently accepted animal tests for acute inhalation toxicity.

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来源期刊
Applied In Vitro Toxicology
Applied In Vitro Toxicology Health Professions-Medical Laboratory Technology
CiteScore
2.70
自引率
0.00%
发文量
13
期刊介绍: Applied In Vitro Toxicology is a peer-reviewed journal providing the latest research on the application of alternative in vitro testing methods for predicting adverse effects in the pharmaceutical, chemical, and personal care industries. This Journal aims to address important issues facing the various chemical industries, including regulatory requirements; the reduction, refinement, and replacement of animal testing; new screening methods; evaluation of new cell and tissue models; and the most appropriate methods for assessing safety and satisfying regulatory demands. The Journal also delivers the latest views and opinions of developers of new models, end users of the models, academic laboratories that are inventing new tools, and regulatory agencies in the United States, Europe, Latin America, Australia and Asia. Applied In Vitro Toxicology is the journal that scientists involved with hazard identification and risk assessment will read to understand how new and existing in vitro methods are applied, and the questions for which these models provide answers. Applied In Vitro Toxicology coverage includes: -Applied in vitro toxicology industry standards -New technologies developed for applied in vitro toxicology -Data acquisition, cleaning, distribution, and best practices -Data protection, privacy, and policy -Business interests from research to product -The changing role of in vitro toxicology -Visualization and design principles of applied in vitro toxicology infrastructures -Physical interfaces and robotics -Opportunities around applied in vitro toxicology
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