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土壤中和林下的真菌具有耦合的分布模式。

Fungi in soil and understory have coupled distribution patterns.

作者信息

Boraks André, Amend Anthony S

机构信息

School of Life Science, University of Hawaii at Manoa, Honolulu, Hawai'i, United States of America.

出版信息

PeerJ. 2021 Sep 21;9:e11915. doi: 10.7717/peerj.11915. eCollection 2021.

DOI:10.7717/peerj.11915
PMID:34616592
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8462376/
Abstract

Ecological processes that control fungal distribution are not well understood because many fungi can persist in a wide variety of dissimilar habitats which are seldom sampled simultaneously. Geographic range size is reflective of species' resource usage, and for plants and animals, there is a robust positive correlation between niche-breadth and range-size. It remains unknown whether this pattern is true for fungi. To investigate the fungal niche breadth-range size relationship we identified habitat specialists and generalists from two habitats (plant leaves and soil) and asked whether habitat specialization influenced fungal biogeography. We sampled fungi from the soil and phylloplane of tropical forests in Vanuatu and used DNA metabarcoding of the fungal ITS1 region to examine rarity, range size, and habitat connectivity. Fungal communities from the soil and phylloplane are spatially autocorrelated and the spatial distribution of individual fungal OTU are coupled between habitats. Habitat breadth (generalist fungi) did not result in larger range sizes but did correlate positively with occurrence frequency. Fungi that were frequently found were also found in high abundance, a common observation in similar studies of plants and animals. Fungal abundance-occupancy relationships differed by habitat and habitat-specificity. Soil specialists were found to be locally abundant but restricted geographically. In contrast, phylloplane generalists were found to be abundant over a large range in multiple habitats. These results are discussed in the context of differences between habitat characteristics, stability and spatial distribution. Identifying factors that drive spatial variation is key to understanding the mechanisms that maintain biodiversity in forests.

摘要

由于许多真菌能够在各种各样不同的栖息地中生存,而这些栖息地很少同时被采样,因此控制真菌分布的生态过程尚未得到充分了解。地理分布范围大小反映了物种的资源利用情况,对于植物和动物来说,生态位宽度与分布范围大小之间存在着强烈的正相关关系。这种模式对于真菌是否成立仍不清楚。为了研究真菌生态位宽度与分布范围大小的关系,我们从两种栖息地(植物叶片和土壤)中识别出栖息地 specialists 和 generalists,并探讨栖息地 specialization 是否影响真菌生物地理学。我们从瓦努阿图热带森林的土壤和叶面上采集真菌样本,并利用真菌 ITS1 区域的 DNA 宏条形码技术来研究稀有性、分布范围大小和栖息地连通性。土壤和叶面上的真菌群落存在空间自相关,单个真菌操作分类单元(OTU)的空间分布在不同栖息地之间相互关联。栖息地宽度(generalist 真菌)并不会导致更大的分布范围,但与出现频率呈正相关。经常被发现的真菌在高丰度下也能被发现,这在对植物和动物的类似研究中是常见的观察结果。真菌的丰度 - 占有率关系因栖息地和栖息地特异性而异。发现土壤 specialists 在局部地区丰富,但地理分布受限。相比之下,叶面 generalists 在多个栖息地的大范围中都很丰富。我们在栖息地特征、稳定性和空间分布差异的背景下讨论了这些结果。识别驱动空间变异的因素是理解维持森林生物多样性机制的关键。

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Front Microbiol. 2019 Feb 11;10:169. doi: 10.3389/fmicb.2019.00169. eCollection 2019.
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