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为什么高持久性本身就是一个主要的关注点?

Why is high persistence alone a major cause of concern?

机构信息

Department of Environmental Science and Analytical Chemistry (ACES), Stockholm University, SE-10691 Stockholm, Sweden.

出版信息

Environ Sci Process Impacts. 2019 May 22;21(5):781-792. doi: 10.1039/c8em00515j.

DOI:10.1039/c8em00515j
PMID:30973570
Abstract

Persistence is a hazard criterion for chemicals enshrined in chemical regulation worldwide. In this paper, we argue that the higher the persistence of a chemical, the greater the emphasis that it should be given in chemicals assessment and decision making. We provide case studies for three classes of highly persistent chemicals (chlorofluorocarbons, polychlorinated biphenyls, and per- and polyfluoroalkyl substances) to exemplify problems unique to highly persistent chemicals, despite their otherwise diverse properties. Many well-known historical chemical pollution problems were the result of the release of highly persistent chemicals. Using evaluative modeling calculations, we demonstrate that if a chemical is highly persistent, its continuous release will lead to continuously increasing contamination irrespective of the chemical's physical-chemical properties. We argue that these increasing concentrations will result in increasing probabilities of the occurrence of known and unknown effects and that, once adverse effects are identified, it will take decades, centuries or even longer to reverse contamination and therefore effects. Based on our findings we propose that high persistence alone should be established as a sufficient basis for regulation of a chemical, which we term the "P-sufficient approach". We argue that regulation on high persistence alone is not over-precautionary given the historical and ongoing problems that persistent chemicals have caused. Regulation of highly persistent chemicals, for example by restriction of emissions, would not only be precautionary, but would serve to prevent poorly reversible future impacts.

摘要

持久性是全球化学法规所规定的化学物质的危害标准。本文认为,一种化学物质的持久性越高,在化学品评估和决策中就越应强调它。我们提供了三类高度持久的化学物质(氯氟烃、多氯联苯和全氟及多氟烷基物质)的案例研究,以说明尽管它们具有不同的性质,但高度持久的化学物质所特有的问题。许多众所周知的历史化学污染问题是由于释放高度持久的化学物质造成的。通过评估模型计算,我们证明,如果一种化学物质具有高度持久性,其持续释放将导致不断增加的污染,而不论其物理化学性质如何。我们认为,这些不断增加的浓度将导致已知和未知影响发生的可能性增加,并且一旦确定了不利影响,就需要数十年、数百年甚至更长时间才能逆转污染,从而逆转影响。基于我们的研究结果,我们提出仅将高持久性确立为化学物质监管的充分依据,我们称之为“P 充分方法”。我们认为,鉴于持久性化学物质造成的历史和持续问题,仅对高持久性进行监管并不是过分谨慎。例如,通过限制排放对高度持久的化学物质进行监管不仅是预防性的,而且还可以防止未来不可逆转的影响。

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