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动物如何表现得像植物?虫黄藻及其宿主对共生关系的生理和分子适应性。

How does an animal behave like a plant? Physiological and molecular adaptations of zooxanthellae and their hosts to symbiosis.

作者信息

Allemand Denis, Furla Paola

机构信息

Centre scientifique de Monaco, laboratoire international associé "BioSensib" (LIA 647 / CSM & CNRS-UniStra), 8, quai Antoine-I(er), 98000 Principauté de Monaco, Monaco.

UMR 7138 EPS, Sorbonne Universités, UPMC Université Paris-6, université des Antilles, université Nice-Sophia-Antipolis, CNRS, laboratoire évolution Paris-Seine, institut de Biologie Paris-Seine (EPS-IBPS), Parc Valrose, 28, avenue Valrose, BP71, 06108 Nice cedex 02, France.

出版信息

C R Biol. 2018 May-Jun;341(5):276-280. doi: 10.1016/j.crvi.2018.03.007. Epub 2018 Apr 9.

DOI:10.1016/j.crvi.2018.03.007
PMID:29650460
Abstract

Cnidarians (corals and sea anemones) harbouring photosynthetic microalgae derive several benefits from their association. To allow this association, numerous symbiotic-dependent adaptations in both partners, resulting from evolutionary pressures, have been selected. The dinoflagellate symbionts (zooxanthellae) are located inside a vesicle in the cnidarian host cell and are therefore exposed to a very different environment compared to the free-living state of these microalgae in terms of ion concentration and carbon content and speciation. In addition, this intracellular localization imposes that they rely completely upon the host for their nutrient supply (nitrogen, CO). Symbiotic-dependent adaptations imposed to the animal host by phototrophic symbiosis are more relevant to photosynthetic organisms than to metazoans: indeed, the cnidarian host often harbours diurnal changes of morphology to adapt itself to the amount of light and possesses carbon-concentrating mechanisms, antioxidative defences and UV sunscreens similar to that present in phototrophs. These adaptations and the contrasting fragility of the association are discussed from both ecological and evolutionary points of view.

摘要

携带光合微藻的刺胞动物(珊瑚和海葵)从它们的共生关系中获得了多种益处。为了实现这种共生关系,在进化压力作用下,共生双方都产生了许多依赖共生的适应性变化。甲藻共生体(虫黄藻)位于刺胞动物宿主细胞内的一个囊泡中,因此,相较于这些微藻在自由生活状态下的离子浓度、碳含量和形态,它们所处的环境截然不同。此外,这种细胞内定位意味着它们完全依赖宿主提供营养物质(氮、二氧化碳)。光养共生对动物宿主施加的依赖共生的适应性变化,与光合生物的关系比与后生动物的关系更为密切:实际上,刺胞动物宿主常常会发生形态的昼夜变化以适应光照量,并且拥有与光合生物类似的碳浓缩机制、抗氧化防御和紫外线防护措施。本文从生态和进化的角度讨论了这些适应性变化以及共生关系的相对脆弱性。

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