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效应导向分析(EDA)和毒性识别评估(TIE):诊断环境毒性原因的互补但不同方法。

Effects-directed analysis (EDA) and toxicity identification evaluation (TIE): Complementary but different approaches for diagnosing causes of environmental toxicity.

机构信息

Atlantic Ecology Division, National Health and Environmental Effects Research Laboratory, Office of Research and Development, US Environmental Protection Agency, Narragansett, Rhode Island, USA.

出版信息

Environ Toxicol Chem. 2013 Sep;32(9):1935-45. doi: 10.1002/etc.2299.

DOI:10.1002/etc.2299
PMID:23893495
Abstract

Currently, 2 approaches are available for performing environmental diagnostics on samples like municipal and industrial effluents, interstitial waters, and whole sediments to identify anthropogenic contaminants causing toxicological effects. One approach is toxicity identification evaluation (TIE), which was developed primarily in North America to determine active toxicants to whole-organism endpoints. The second approach is effects-directed analysis (EDA), which has origins in both Europe and North America. Unlike TIE, EDA uses primarily in vitro endpoints with an emphasis on organic contaminants as the cause of observed toxicity. The 2 approaches have fundamental differences that make them distinct techniques. In EDA, the sophisticated and elegant fractionation and chemical analyses performed to identify the causes of toxicity with a high degree of specificity often compromise contaminant bioavailability. In contrast, in TIE, toxicant bioavailability is maintained and is considered critical to accurately identifying the causes of environmental toxicity. However, maintaining contaminant bioavailability comes with the cost of limiting, at least until recently, the use of the types of sophisticated fractionation and elegant chemical analyses that have resulted in the high specificity of toxicant diagnosis performed in EDA. The present study provides an overview of each approach and highlights areas where the 2 approaches can complement one another and lead to the improvement of both.

摘要

目前,有两种方法可用于对市政和工业废水、间隙水和全沉积物等样品进行环境诊断,以识别引起毒理学效应的人为污染物。一种方法是毒性识别评估(TIE),它主要在北美开发,用于确定对整体生物终点有活性的有毒物质。第二种方法是效应导向分析(EDA),它起源于欧洲和北美。与 TIE 不同,EDA 主要使用体外终点,并强调有机污染物是观察到的毒性的原因。这两种方法有根本的区别,使它们成为不同的技术。在 EDA 中,为了高度特异性地识别毒性的原因而进行的复杂而优雅的分级和化学分析常常损害污染物的生物利用度。相比之下,在 TIE 中,保持了有毒物质的生物利用度,并被认为对于准确识别环境毒性的原因至关重要。然而,保持污染物的生物利用度带来了限制的代价,至少直到最近,还限制了使用导致 EDA 中毒物诊断具有高特异性的复杂分级和优雅化学分析的类型。本研究概述了每种方法,并强调了这两种方法可以相互补充并改进两者的领域。

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