Spatial Genetic Structure of the Abundant and Widespread Peatmoss Sphagnum magellanicum Brid

Spore-producing organisms have small dispersal units enabling them to become widespread across continents. However, barriers to gene flow and cryptic speciation may exist. The common, haploid peatmoss Sphagnum magellanicum occurs in both the Northern and Southern hemisphere, and is commonly used as...

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Veröffentlicht in:PloS one 2016-02, Vol.11 (2), p.e0148447-e0148447
Hauptverfasser: Kyrkjeeide, Magni Olsen, Hassel, Kristian, Flatberg, Kjell Ivar, Shaw, A Jonathan, Yousefi, Narjes, Stenøien, Hans K
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Hassel, Kristian
Flatberg, Kjell Ivar
Shaw, A Jonathan
Yousefi, Narjes
Stenøien, Hans K
description Spore-producing organisms have small dispersal units enabling them to become widespread across continents. However, barriers to gene flow and cryptic speciation may exist. The common, haploid peatmoss Sphagnum magellanicum occurs in both the Northern and Southern hemisphere, and is commonly used as a model in studies of peatland ecology and peatmoss physiology. Even though it will likely act as a rich source in functional genomics studies in years to come, surprisingly little is known about levels of genetic variability and structuring in this species. Here, we assess for the first time how genetic variation in S. magellanicum is spatially structured across its full distribution range (Northern Hemisphere and South America). The morphologically similar species S. alaskense was included for comparison. In total, 195 plants were genotyped at 15 microsatellite loci. Sequences from two plastid loci (trnG and trnL) were obtained from 30 samples. Our results show that S. alaskense and almost all plants of S. magellanicum in the northern Pacific area are diploids and share the same gene pool. Haploid plants occur in South America, Europe, eastern North America, western North America, and southern Asia, and five genetically differentiated groups with different distribution ranges were found. Our results indicate that S. magellanicum consists of several distinct genetic groups, seemingly with little or no gene flow among them. Noteworthy, the geographical separation of diploids and haploids is strikingly similar to patterns found within other haploid Sphagnum species spanning the Northern Hemisphere. Our results confirm a genetic division between the Beringian and the Atlantic that seems to be a general pattern in Sphagnum taxa. The pattern of strong genetic population structuring throughout the distribution range of morphologically similar plants need to be considered in future functional genomic studies of S. magellanicum.
doi_str_mv 10.1371/journal.pone.0148447
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However, barriers to gene flow and cryptic speciation may exist. The common, haploid peatmoss Sphagnum magellanicum occurs in both the Northern and Southern hemisphere, and is commonly used as a model in studies of peatland ecology and peatmoss physiology. Even though it will likely act as a rich source in functional genomics studies in years to come, surprisingly little is known about levels of genetic variability and structuring in this species. Here, we assess for the first time how genetic variation in S. magellanicum is spatially structured across its full distribution range (Northern Hemisphere and South America). The morphologically similar species S. alaskense was included for comparison. In total, 195 plants were genotyped at 15 microsatellite loci. Sequences from two plastid loci (trnG and trnL) were obtained from 30 samples. Our results show that S. alaskense and almost all plants of S. magellanicum in the northern Pacific area are diploids and share the same gene pool. Haploid plants occur in South America, Europe, eastern North America, western North America, and southern Asia, and five genetically differentiated groups with different distribution ranges were found. Our results indicate that S. magellanicum consists of several distinct genetic groups, seemingly with little or no gene flow among them. Noteworthy, the geographical separation of diploids and haploids is strikingly similar to patterns found within other haploid Sphagnum species spanning the Northern Hemisphere. Our results confirm a genetic division between the Beringian and the Atlantic that seems to be a general pattern in Sphagnum taxa. 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subjects Biology and Life Sciences
Continents
Diploids
Diploidy
Dispersal
DNA, Chloroplast - genetics
Earth Sciences
Ecological monitoring
Ecology
Ecology and Environmental Sciences
Ecosystem
Ecosystems
Evolution, Molecular
Gene Flow
Gene pool
Genetic aspects
Genetic diversity
Genetic Speciation
Genetic structure
Genetic variability
Genetic Variation
Genetics, Population
Genome, Plant
Genomes
Genomics
Haploidy
Loci
Microsatellite Repeats
Microsatellites
Molecular Biology
Morphology
Museums
Northern Hemisphere
Organisms
Peatland ecology
People and places
Phylogenetics
Phylogeny
Physiological aspects
Population genetics
Science
Southern Hemisphere
Spatial distribution
Speciation
Species
Species Specificity
Sphagnaceae
Sphagnopsida - classification
Sphagnopsida - genetics
Sphagnum
Sphagnum centrale
Sphagnum magellanicum
Sphagnum subsecundum
Taxa
Time Factors
title Spatial Genetic Structure of the Abundant and Widespread Peatmoss Sphagnum magellanicum Brid
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