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智利巴塔哥尼亚高动态多锋生态系统峡湾内海洋甲藻( spp.)的空前爆发。

An Unprecedented Bloom of Oceanic Dinoflagellates ( spp.) Inside a Fjord within a Highly Dynamic Multifrontal Ecosystem in Chilean Patagonia.

机构信息

Centro i~mar, Universidad de Los Lagos, Casilla 557, Puerto Montt 5480000, Chile.

Centre for Biotechnology and Bioengineering (CeBiB), Universidad de Los Lagos, Casilla 557, Puerto Montt 5480000, Chile.

出版信息

Toxins (Basel). 2024 Feb 2;16(2):77. doi: 10.3390/toxins16020077.

DOI:10.3390/toxins16020077
PMID:38393154
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC10892511/
Abstract

At the end of summer 2020, a moderate (~10 cells L) bloom of potential fish-killing spp. was detected in samples from a 24 h study focused on spp. in the outer reaches of the Pitipalena-Añihue Marine Protected Area. Previous events with devastating effects on caged salmon and the wild fauna of Chilean Patagonia had been restricted to offshore waters, eventually reaching the southern coasts of Chiloé Island through the channel connecting the Chiloé Inland Sea to the Pacific Ocean. This event occurred at the onset of the COVID-19 lockdown when monitoring activities were slackened. A few salmon mortalities were related to other fish-killing species (e.g., ). As in the major event in 1999, the austral summer of 2020 was characterised by negative anomalies in rainfall and river outflow and a severe drought in March. spp. appeared to have been advected in a warm (14-15 °C) surface layer of estuarine saline water (S > 21). A lack of daily vertical migration patterns and cells dispersed through the whole water column suggested a declining population. Satellite images confirmed the decline, but gave evidence of dynamic multifrontal patterns of temperature and chl distribution. A conceptual circulation model is proposed to explain the hypothetical retention of the bloom by a coastally generated eddy coupled with the semidiurnal tides at the mouth of Pitipalena Fjord. Thermal fronts generated by (topographically induced) upwelling around the Tic Toc Seamount are proposed as hot spots for the accumulation of swimming dinoflagellates in summer in the southern Chiloé Inland Sea. The results here provide helpful information on the environmental conditions and water column structure favouring occurrence. Thermohaline properties in the surface layer in summer can be used to develop a risk index (positive if the EFW layer is thin or absent).

摘要

2020 年夏末,在皮塔皮拉纳-阿尼胡埃海洋保护区外海进行的为期 24 小时的研究中,检测到潜在的鱼类杀手 spp. 适度 (~10 个细胞 L) 爆发。此前,对智利巴塔哥尼亚圈养鲑鱼和野生动物造成毁灭性影响的事件仅限于近海海域,最终通过连接奇洛埃内陆海和太平洋的海峡到达奇洛埃岛南部海岸。此次事件发生在 COVID-19 封锁开始时,监测活动有所放松。一些鲑鱼死亡与其他鱼类杀手物种有关(例如,)。与 1999 年的重大事件一样,2020 年的南半球夏季以降雨量和河流出流量的负异常以及 3 月的严重干旱为特征。spp. 似乎被输送到了温暖的(14-15°C)河口盐水表层(S > 21)。缺乏每日垂直迁移模式和分散在整个水柱中的细胞表明种群正在减少。卫星图像证实了这种下降,但也证明了温度和 chl 分布的动态多锋模式。提出了一个概念性的循环模型来解释沿海生成的旋涡假设保留 bloom 的情况,该旋涡与皮塔皮拉纳峡湾口的半日潮相结合。特科托克海山周围(地形引起的)上升流产生的热锋被提议为夏季奇洛埃南部内陆海游泳腰鞭毛虫积累的热点。这里的结果提供了有关有利于发生的环境条件和水柱结构的有用信息。夏季表层的热盐特性可用于开发风险指数(如果 EFW 层较薄或不存在,则为正)。

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