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蓝藻肽除微囊藻毒素之外——关于共存、毒性和风险评估挑战的综述。

Cyanobacterial peptides beyond microcystins - A review on co-occurrence, toxicity, and challenges for risk assessment.

机构信息

Swiss Federal Institute of Aquatic Science and Technology, Eawag, Dübendorf, 8600, Switzerland.

出版信息

Water Res. 2019 Mar 15;151:488-499. doi: 10.1016/j.watres.2018.12.048. Epub 2019 Jan 3.

DOI:10.1016/j.watres.2018.12.048
PMID:30641464
Abstract

Cyanobacterial bloom events that produce natural toxins occur in freshwaters across the globe, yet the potential risk of many cyanobacterial metabolites remains mostly unknown. Only microcystins, one class of cyanopeptides, have been studied intensively and the wealth of evidence regarding exposure concentrations and toxicity led to their inclusion in risk management frameworks for water quality. However, cyanobacteria produce an incredible diversity of hundreds of cyanopeptides beyond the class of microcystins. The question arises, whether the other cyanopeptides are in fact of no human and ecological concern or whether these compounds merely received (too) little attention thus far. Current observations suggest that an assessment of their (eco)toxicological risk is indeed relevant: First, other cyanopeptides, including cyanopeptolins and anabaenopeptins, can occur just as frequently and at similar nanomolar concentrations as microcystins in surface waters. Second, cyanopeptolins, anabaenopeptins, aeruginosins and microginins inhibit proteases in the nanomolar range, in contrast to protein phosphatase inhibition by microcystins. Cyanopeptolins, aeruginosins, and aerucyclamide also show toxicity against grazers in the micromolar range comparable to microcystins. The key challenge for a comprehensive risk assessment of cyanopeptides remains their large structural diversity, lack of reference standards, and high analytical requirements for identification and quantification. One way forward would be a prevalence study to identify the priority candidates of tentatively abundant, persistent, and toxic cyanopeptides to make comprehensive risk assessments more manageable.

摘要

在全球范围内的淡水中都会发生产生天然毒素的蓝藻水华事件,但许多蓝藻代谢物的潜在风险在很大程度上仍然未知。只有微囊藻毒素,这一类蓝藻肽,被进行了深入研究,并且关于暴露浓度和毒性的大量证据导致它们被纳入水质风险管理框架。然而,蓝藻产生了数百种超出微囊藻毒素类别的令人难以置信的蓝藻肽多样性。问题是,其他蓝藻肽实际上是否对人类和生态没有关注,或者这些化合物是否只是迄今为止受到(太少)关注。目前的观察表明,对其(生态)毒理学风险进行评估确实是相关的:首先,其他蓝藻肽,包括蓝藻肽和鱼腥藻肽,在地表水中的出现频率和类似纳摩尔浓度与微囊藻毒素一样高。其次,蓝藻肽、鱼腥藻肽、节球藻素和微囊藻素在纳摩尔范围内抑制蛋白酶,而微囊藻素抑制蛋白磷酸酶。蓝藻肽、节球藻素和 aerucyclamide 也在微摩尔范围内对食草动物表现出毒性,与微囊藻毒素相当。全面评估蓝藻肽风险的关键挑战仍然是它们的结构多样性大、缺乏参考标准以及对鉴定和定量的高分析要求。一种前进的方法是进行流行性病学研究,以确定暂定丰富、持久和有毒蓝藻肽的优先候选物,使全面风险评估更易于管理。

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