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共生体群落和核电厂及其周边地区脑珊瑚 Platygyra verweyi 的宿主遗传结构。

Symbiont communities and host genetic structure of the brain coral Platygyra verweyi, at the outlet of a nuclear power plant and adjacent areas.

机构信息

Biodiversity Research Center, Academia Sinica, Nangang, Taipei 115, Taiwan.

出版信息

Mol Ecol. 2012 Sep;21(17):4393-407. doi: 10.1111/j.1365-294X.2012.05704.x. Epub 2012 Jul 18.

DOI:10.1111/j.1365-294X.2012.05704.x
PMID:22809041
Abstract

In the context of rising seawater temperatures associated with climate change, the issue of whether coral holobionts deal with this challenge by shuffling their associations with stress- and/or heat-tolerant Symbiodinium, by generating heat-resistant host genotypes, or both is important for coral survival. In this study, the composition of communities of the endosymbiont Symbiodinium and the population genetics of the coral host Platygyra verweyi were examined in a reef impacted by hot-water discharged from the outlet of a nuclear power plant in operation in Kenting, Southern Taiwan since 1984. The water at this site is 2.0-3.0 °C warmer than adjacent reefs in summer, which have an average seawater temperature of 29.0 °C. The data were compared with those for the same species at other sites within 12 km of the outlet site. Platygyra verwyei was associated with one or both of Symbiodinium types C3 (heat sensitive) and D1a (heat tolerant) at all sites with the latter being the dominant at the nuclear power plant outlet. The proportion of C3 in populations increased gradually with increasing distance from the hot-water discharge. Genetic analysis of the Platygyra verweyi host using mitochondrial and nuclear markers showed no genetic differentiation among sites. Changes in the composition of Symbiodinium types associated with P. verweyi among closely located sites in Kenting suggested that this coral might have acclimatized to the constant thermal stress by selective association with heat-tolerant Symbiodinium types, whereas the role of the host in adaptation was inconclusive.

摘要

在与气候变化相关的海水温度上升的背景下,珊瑚共生体通过与耐热和/或抗热的共生藻 Symbiodinium shuffling 来应对这一挑战,还是通过产生耐热的宿主基因型来应对,或者两者兼而有之,这对珊瑚的生存至关重要。在这项研究中,对台湾垦丁运营中的核电厂出水口排放的热水影响下的珊瑚礁中的共生藻 Symbiodinium 群落组成和珊瑚宿主 Platygyra verweyi 的种群遗传学进行了研究。该地点的水温比相邻的珊瑚礁高 2.0-3.0°C,夏季平均海水温度为 29.0°C。这些数据与同一物种在出水口 12 公里范围内的其他地点的数据进行了比较。Platygyra verwyei 在所有地点都与共生藻类型 C3(对热敏感)和 D1a(耐热)之一或两者有关,后者在核电厂出水口占优势。随着与热水排放距离的增加,C3 在种群中的比例逐渐增加。使用线粒体和核标记对 Platygyra verweyi 宿主进行的遗传分析表明,各地点之间没有遗传分化。垦丁附近密切相关地点的 P. verweyi 相关共生藻类型组成的变化表明,这种珊瑚可能通过与耐热的共生藻类型选择性结合而适应了持续的热应激,而宿主在适应中的作用尚无定论。

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