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Ecological succession reveals potential signatures of marine-terrestrial transition in salt marsh fungal communities
F. Dini-Andreote, VS. Pylro, P. Baldrian, JD. van Elsas, JF. Salles,
Language English Country England, Great Britain
Document type Journal Article
NLK
PubMed Central
from 2011
Europe PubMed Central
from 2011 to 1 year ago
ProQuest Central
from 2007-05-01 to 1 year ago
Health & Medicine (ProQuest)
from 2007-05-01 to 1 year ago
Oxford Journals Open Access Collection
from 2007
- MeSH
- Biodiversity MeSH
- Ecology MeSH
- Ecosystem MeSH
- Fungi classification genetics physiology MeSH
- Wetlands * MeSH
- Soil MeSH
- Soil Microbiology * MeSH
- Salinity MeSH
- Environment MeSH
- Publication type
- Journal Article MeSH
Marine-to-terrestrial transition represents one of the most fundamental shifts in microbial life. Understanding the distribution and drivers of soil microbial communities across coastal ecosystems is critical given the roles of microbes in soil biogeochemistry and their multifaceted influence on landscape succession. Here, we studied the fungal community dynamics in a well-established salt marsh chronosequence that spans over a century of ecosystem development. We focussed on providing high-resolution assessments of community composition, diversity and ecophysiological shifts that yielded patterns of ecological succession through soil formation. Notably, despite containing 10- to 100-fold lower fungal internal transcribed spacer abundances, early-successional sites revealed fungal richnesses comparable to those of more mature soils. These newly formed sites also exhibited significant temporal variations in β-diversity that may be attributed to the highly dynamic nature of the system imposed by the tidal regime. The fungal community compositions and ecophysiological assignments changed substantially along the successional gradient, revealing a clear signature of ecological replacement and gradually transforming the environment from a marine into a terrestrial system. Moreover, distance-based linear modelling revealed soil physical structure and organic matter to be the best predictors of the shifts in fungal β-diversity along the chronosequence. Taken together, our study lays the basis for a better understanding of the spatiotemporally determined fungal community dynamics in salt marshes and highlights their ecophysiological traits and adaptation in an evolving ecosystem.
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