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蓝藻肽共生产动力学超越微囊藻毒素及其生长阶段和营养可用性的影响。

Cyanopeptide Co-Production Dynamics beyond Mirocystins and Effects of Growth Stages and Nutrient Availability.

机构信息

Department of Environmental Chemistry, Swiss Federal Institute of Aquatic Science and Technology (Eawag), 8600 Dübendorf, Switzerland.

出版信息

Environ Sci Technol. 2020 May 19;54(10):6063-6072. doi: 10.1021/acs.est.9b07334. Epub 2020 Apr 30.

DOI:10.1021/acs.est.9b07334
PMID:32302105
Abstract

Intensified cyanobacterial bloom events are of increasing global concern because of adverse effects associated with the release of bioactive compounds, including toxic cyanopeptides. Cyanobacteria can produce a variety of cyanopeptides, yet our knowledge about their abundance and co-production remains limited. We applied a suspect-screening approach, including 700 structurally known cyanopeptides, and identified 11 cyanopeptides in and 17 in . Total cyanopeptide concentrations ranged from high nmol to μmol g with slightly higher cell quotas in the mid-exponential growth phase. Relative cyanopeptide profiles were unchanged throughout the growth cycle. We demonstrate that quantification based on microcystin-LR equivalents can introduce an error of up to 6-fold and recommend a class-equivalent approach instead. In , rarely studied cyclamides dominated (>80%) over cyanopeptolins and microcystins. While all nutrient reductions caused less growth, only lowering phosphorous and micronutrients reduced cyanopeptide production by . Similar trends were observed for and only lowering nitrogen decreased cyanopeptide production while the relative abundance of individual cyanopeptides remained stable. The synchronized production of other cyanopeptides along with microcystins emphasizes the need to make them available as reference standards to encourage more studies on their occurrence in blooms, persistence, and potential toxicity.

摘要

密集的蓝藻水华事件越来越受到全球关注,因为与生物活性化合物(包括有毒的蓝藻肽)释放相关的负面影响。蓝藻可以产生多种蓝藻肽,但我们对它们的丰度和共同生产的了解仍然有限。我们应用了一种可疑筛选方法,包括 700 种已知结构的蓝藻肽,在 和 中分别鉴定出 11 种和 17 种蓝藻肽。总蓝藻肽浓度范围从高 nmol 到 μmol g,在指数增长中期细胞丰度略高。相对蓝藻肽谱在整个生长周期内保持不变。我们证明,基于微囊藻-LR 当量的定量可能会引入高达 6 倍的误差,因此建议采用等效类别方法。在 中,研究较少的环酰胺(>80%)占主导地位,超过了蓝藻肽和微囊藻。虽然所有的营养物质减少都会导致生长减少,但只有降低磷和微量元素才能减少 的蓝藻肽产生。 和 也观察到类似的趋势,只有降低氮才能减少蓝藻肽的产生,而单个蓝藻肽的相对丰度保持稳定。与微囊藻一起同步产生的其他蓝藻肽强调需要将它们作为参考标准提供,以鼓励更多关于它们在水华、持久性和潜在毒性中的存在、持久性和潜在毒性的研究。

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