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地衣真菌在南极海洋地区对蓝藻共生体的选择性较低。

Lichen fungi have low cyanobiont selectivity in maritime Antarctica.

作者信息

Wirtz Nora, Lumbsch H Thorsten, Green T G Allan, Türk Roman, Pintado Ana, Sancho Leopoldo, Schroeter Burkhard

机构信息

Botanisches Institut, Universität Duisburg-Essen, Essen, Germany.

Department of Botany, The Field Museum of Natural History, Chicago, IL 60605, USA.

出版信息

New Phytol. 2003 Oct;160(1):177-183. doi: 10.1046/j.1469-8137.2003.00859.x.

DOI:10.1046/j.1469-8137.2003.00859.x
PMID:33873530
Abstract

•  The cyanobionts of lichens and free-living Nostoc strains from Livingston Island (maritime Antarctica) were examined to determine both the cyanobiont specificity of lichens and the spatial distribution of Nostoc strains under extreme environmental conditions. •  We collected five different lichen species with cyanobacteria as primary or secondary photobiont (Massalongia carnosa, Leptogium puberulum, Psoroma cinnamomeum, Placopsis parellina and Placopsis contortuplicata) and free-living cyanobacteria from different sample sites and analysed them using the tRNA (UAA) intron as a genetic marker to identify the cyanobacterial strains. •  Our results showed that the same Nostoc strain was shared by all five lichen species and that an additional strain was present in two of the lichens. Both Nostoc strains associated with lichen fungi also occurred free-living in their surrounding. Bi- and tri-partite lichens were not different in their cyanobiont selectivity. •  Contrary to studies on different lichen species in temperate regions, the Antarctic lichen species here did not use species-specific cyanobionts; this could be because of a selection pressure in this extreme environment. Limiting factors under these ecological conditions favor more versatile mycobionts. This results in selection against photobiont specificity, a selection pressure that may be more important for lichen distribution than the effect of cold temperatures on metabolism.

摘要

• 对来自利文斯顿岛(南极海洋地区)的地衣蓝藻共生体和自由生活的念珠藻菌株进行了研究,以确定地衣的蓝藻共生体特异性以及极端环境条件下念珠藻菌株的空间分布。

• 我们收集了五种以蓝细菌作为主要或次要光合共生体的不同地衣物种(肉质大叶地衣、柔毛扁枝衣、肉桂牛皮叶、平盘衣和扭曲平盘衣)以及来自不同采样地点的自由生活蓝细菌,并使用tRNA(UAA)内含子作为遗传标记对它们进行分析,以鉴定蓝细菌菌株。

• 我们的结果表明,所有五种地衣物种共享同一念珠藻菌株,并且其中两种地衣中还存在另一种菌株。与地衣真菌相关的两种念珠藻菌株在其周围环境中也以自由生活的形式出现。二联体和三联体地衣在蓝藻共生体选择性方面没有差异。

• 与对温带地区不同地衣物种的研究相反,这里的南极地衣物种并未使用物种特异性蓝藻共生体;这可能是由于这种极端环境中的选择压力所致。在这些生态条件下的限制因素有利于更具通用性的真菌共生体。这导致了对光合共生体特异性的选择淘汰,这种选择压力对地衣分布的影响可能比对新陈代谢的低温影响更为重要。

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The cyanobacterial tRNA(Leu) (UAA) intron: evolutionary patterns in a genetic marker.
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