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不同类型(物种)的培养珊瑚内共生微藻(共生藻)在交替光照和温度条件下的细胞周期动态

Cell Cycle Dynamics of Cultured Coral Endosymbiotic Microalgae (Symbiodinium) Across Different Types (Species) Under Alternate Light and Temperature Conditions.

作者信息

Fujise Lisa, Nitschke Matthew R, Frommlet Jörg C, Serôdio João, Woodcock Stephen, Ralph Peter J, Suggett David J

机构信息

Climate Change Cluster, University of Technology Sydney, Broadway, New South Wales, 2007, Australia.

Department of Biology and Center for Environmental and Marine Studies, University of Aveiro, Aveiro, 3810-193, Portugal.

出版信息

J Eukaryot Microbiol. 2018 Jul;65(4):505-517. doi: 10.1111/jeu.12497. Epub 2018 Feb 1.

DOI:10.1111/jeu.12497
PMID:29316019
Abstract

Dinoflagellates of the genus Symbiodinium live in symbiosis with many invertebrates, including reef-building corals. Hosts maintain this symbiosis through continuous regulation of Symbiodinium cell density via expulsion and degradation (postmitotic) and/or constraining cell growth and division through manipulation of the symbiont cell cycle (premitotic). Importance of premitotic regulation is unknown since little data exists on cell cycles for the immense genetic diversity of Symbiodinium. We therefore examined cell cycle progression for several distinct SymbiodiniumITS2-types (B1, C1, D1a). All types exhibited typical microalgal cell cycle progression, G phase through to S phase during the light period, and S phase to G /M phase during the dark period. However, the proportion of cells in these phases differed between strains and reflected differences in growth rates. Undivided larger cells with 3n DNA content were observed especially in type D1a, which exhibited a distinct cell cycle pattern. We further compared cell cycle patterns under different growth light intensities and thermal regimes. Whilst light intensity did not affect cell cycle patterns, heat stress inhibited cell cycle progression and arrested all strains in G phase. We discuss the importance of understanding Symbiodinium functional diversity and how our findings apply to clarify stability of host-Symbiodinium symbioses.

摘要

共生藻属的甲藻与许多无脊椎动物共生,包括造礁珊瑚。宿主通过排出和降解(有丝分裂后)来持续调节共生藻细胞密度,和/或通过操纵共生藻细胞周期(有丝分裂前)来限制细胞生长和分裂,从而维持这种共生关系。由于关于共生藻巨大遗传多样性的细胞周期数据很少,有丝分裂前调节的重要性尚不清楚。因此,我们研究了几种不同的共生藻ITS2类型(B1、C1、D1a)的细胞周期进程。所有类型均表现出典型的微藻细胞周期进程,在光照期从G期进入S期,在黑暗期从S期进入G/M期。然而,这些阶段的细胞比例在不同菌株之间存在差异,反映了生长速率的差异。特别是在D1a型中观察到具有3n DNA含量的未分裂大细胞,其表现出独特的细胞周期模式。我们进一步比较了不同生长光照强度和热条件下的细胞周期模式。虽然光照强度不影响细胞周期模式,但热应激会抑制细胞周期进程,并使所有菌株停滞在G期。我们讨论了了解共生藻功能多样性的重要性,以及我们的发现如何应用于阐明宿主 - 共生藻共生关系的稳定性。

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Cell Cycle Dynamics of Cultured Coral Endosymbiotic Microalgae (Symbiodinium) Across Different Types (Species) Under Alternate Light and Temperature Conditions.不同类型(物种)的培养珊瑚内共生微藻(共生藻)在交替光照和温度条件下的细胞周期动态
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