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鹿角杯形珊瑚幼虫在深度梯度上的生理特征

Physiological characteristics of Stylophora pistillata larvae across a depth gradient.

作者信息

Scucchia Federica, Nativ Hagai, Neder Maayan, Goodbody-Gringley Gretchen, Mass Tali

机构信息

Department of Marine Biology, Leon H. Charney School of Marine Sciences University of Haifa, Israel.

The Interuniversity Institute of Marine Sciences, Eilat 88103, Israel.

出版信息

Front Mar Sci. 2020 Jan 24;7. doi: 10.3389/fmars.2020.00013.

Abstract

Depth related parameters, specifically light, affect different aspects of corals physiology, including fluorescence. GFP-like pigments found in many coral species have been suggested to serve a variety of functions, including photo-protection and photo-enhancement. Using fluorescence imaging and molecular analysis, we further investigated the role of these proteins on the physiology of the coral and its algal partners. Fluorescence was found to differ significantly between depths for larvae and adult colonies. Larvae from the shallow reef presented a higher GFP expression and a greater fluorescence intensity compared to the larvae from the mesophotic reef, reflecting the elevated need for photo-protection against high light levels characteristic of the shallow reef, thus supporting the "sunscreen" hypothesis. Additionally, given the lower but still occurring protein expression under non-damaging low light conditions, our results suggest that GFP-like proteins might act to regulate the amount of photosynthetically usable light for the benefit of the symbiotic algae. Moreover, we propose that the differences in GFP expression and green fluorescence between shallow and deep larvae indicate that the GFPs within coral larvae might serve to attract and retain different symbiont clades, increasing the chances of survival when encountering new environments.

摘要

与深度相关的参数,特别是光照,会影响珊瑚生理的不同方面,包括荧光。许多珊瑚物种中发现的类绿色荧光蛋白(GFP)色素被认为具有多种功能,包括光保护和光增强。通过荧光成像和分子分析,我们进一步研究了这些蛋白质在珊瑚及其藻类共生体生理过程中的作用。研究发现,幼虫和成年群体在不同深度的荧光存在显著差异。与中光带珊瑚礁的幼虫相比,浅礁的幼虫呈现出更高的GFP表达和更强的荧光强度,这反映了浅礁高光水平下对光保护的更高需求,从而支持了“防晒霜”假说。此外,鉴于在无损伤的低光照条件下蛋白质表达较低但仍会发生,我们的结果表明,类GFP蛋白可能起到调节光合可用光量的作用,以利于共生藻类。此外,我们提出浅海和深海幼虫之间GFP表达和绿色荧光的差异表明,珊瑚幼虫体内的GFP可能有助于吸引和保留不同的共生体分支,增加在遇到新环境时的生存机会。

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