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石蕊科石蕊属部分物种的真菌和藻类共生体中核糖体RNA ITS二级结构的演化(石蕊科,子囊菌亚门)

Evolution of ITS ribosomal RNA secondary structures in fungal and algal symbionts of selected species of Cladonia sect. Cladonia (Cladoniaceae, Ascomycotina).

作者信息

Beiggi Sara, Piercey-Normore Michele D

机构信息

Department of Botany, University of Manitoba, Winnipeg, Manitoba R3T 2N2, Canada.

出版信息

J Mol Evol. 2007 May;64(5):528-42. doi: 10.1007/s00239-006-0115-x. Epub 2007 Apr 24.

DOI:10.1007/s00239-006-0115-x
PMID:17460809
Abstract

Evolutionary studies in lichen associations follow that of the fungal symbiont (mycobiont), which is the symbiont after which the lichen is named and forms the majority of the thallus. However, evolution of the algal partner (photobiont) is important to maintain compatibility between symbionts and to optimize productivity of the lichen association. The internal transcribed spacer (ITS) regions of the nuclear ribosomal DNA (rDNA) were examined for primary DNA sequence patterns and for patterns in the secondary structure of the rRNA transcripts in both symbionts of the genus Cladonia. Fungal and algal symbionts show opposite trends in rates of evolution and fragment lengths. Both symbionts showed stronger conservation of the ITS2 structure than the ITS1 structure. Homology was evident in the secondary structures between the two highly divergent chlorophyte and ascomycete taxonomic groups. Most fungal species and all species complexes were polyphyletic. The ITS rDNA of the natural lichen algae from Manitoba and four known algal species is highly similar. The natural lichen algae segregate into highly supported clades by environmental features, suggesting that algae that are already adapted to the environment may associate with germinating fungal propagules in the genus Cladonia. Fungal plasticity may allow the mycobiont to adapt to the environment of the photobiont producing variation in lichen morphology. This might explain the incongruence of phylogenetic patterns between the algal and fungal partners tested and the polyphyly of the fungal species.

摘要

地衣共生关系的进化研究遵循真菌共生体(菌层)的研究,菌层是地衣命名所依据的共生体,构成了地衣体的大部分。然而,藻类共生体(光合生物)的进化对于维持共生体之间的兼容性以及优化地衣共生关系的生产力至关重要。对石蕊属两种共生体的核糖体DNA(rDNA)的内部转录间隔区(ITS)进行了研究,以分析初级DNA序列模式以及rRNA转录本二级结构中的模式。真菌和藻类共生体在进化速率和片段长度上呈现相反的趋势。两种共生体的ITS2结构比ITS1结构表现出更强的保守性。两个高度不同的绿藻和子囊菌分类群之间的二级结构存在明显的同源性。大多数真菌物种和所有物种复合体都是多系的。来自马尼托巴省的天然地衣藻类和四种已知藻类物种的ITS rDNA高度相似。天然地衣藻类根据环境特征分为支持度很高的分支,这表明已经适应环境的藻类可能与石蕊属中正在萌发的真菌繁殖体相关联。真菌的可塑性可能使菌层适应光合生物的环境,从而导致地衣形态产生变化。这可能解释了所测试的藻类和真菌共生体之间系统发育模式的不一致以及真菌物种的多系性。

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