Historical effects on beta diversity and community assembly in Amazonian trees

We present a unique perspective on the role of historical processes in community assembly by synthesizing analyses of species turnover among communities with environmental data and independent, population genetic-derived estimates of among-community dispersal. We sampled floodplain and terra firme c...

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Veröffentlicht in:Proceedings of the National Academy of Sciences - PNAS 2012-05, Vol.109 (20), p.7787-7792
Hauptverfasser: Dexter, Kyle G, Terborgh, John W, Cunningham, Clifford W
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Terborgh, John W
Cunningham, Clifford W
description We present a unique perspective on the role of historical processes in community assembly by synthesizing analyses of species turnover among communities with environmental data and independent, population genetic-derived estimates of among-community dispersal. We sampled floodplain and terra firme communities of the diverse tree genus Inga (Fabaceae) across a 250-km transect in Amazonian Peru and found patterns of distance-decay in compositional similarity in both habitat types. However, conventional analyses of distance-decay masked a zone of increased species turnover present in the middle of the transect. We estimated past seed dispersal among the same communities by examining geographic plastid DNA variation for eight widespread Inga species and uncovered a population genetic break in the majority of species that is geographically coincident with the zone of increased species turnover. Analyses of these and 12 additional Inga species shared between two communities located on opposite sides of the zone showed that the populations experienced divergence 42,000–612,000 y ago. Our results suggest that the observed distance decay is the result not of environmental gradients or dispersal limitation coupled with ecological drift—as conventionally interpreted under neutral ecological theory—but rather of secondary contact between historically separated communities. Thus, even at this small spatial scale, historical processes seem to significantly impact species’ distributions and community assembly. Other documented zones of increased species turnover found in the western Amazon basin or elsewhere may be related to similar historical processes.
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We sampled floodplain and terra firme communities of the diverse tree genus Inga (Fabaceae) across a 250-km transect in Amazonian Peru and found patterns of distance-decay in compositional similarity in both habitat types. However, conventional analyses of distance-decay masked a zone of increased species turnover present in the middle of the transect. We estimated past seed dispersal among the same communities by examining geographic plastid DNA variation for eight widespread Inga species and uncovered a population genetic break in the majority of species that is geographically coincident with the zone of increased species turnover. Analyses of these and 12 additional Inga species shared between two communities located on opposite sides of the zone showed that the populations experienced divergence 42,000–612,000 y ago. 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Our results suggest that the observed distance decay is the result not of environmental gradients or dispersal limitation coupled with ecological drift—as conventionally interpreted under neutral ecological theory—but rather of secondary contact between historically separated communities. Thus, even at this small spatial scale, historical processes seem to significantly impact species’ distributions and community assembly. Other documented zones of increased species turnover found in the western Amazon basin or elsewhere may be related to similar historical processes.</abstract><cop>United States</cop><pub>National Academy of Sciences</pub><pmid>22547831</pmid><doi>10.1073/pnas.1203523109</doi><tpages>6</tpages><oa>free_for_read</oa></addata></record>
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subjects Base Sequence
Bayes Theorem
Biodiversity
Biological Sciences
Biological taxonomies
Biota
chemistry
Demography
Demography - history
Dispersal
Environment
Fabaceae
Fabaceae - genetics
Fabaceae - history
Floodplains
Genetic Variation
Genetic Variation - genetics
genetics
Genetics, Population
Genome, Plastid
Genome, Plastid - genetics
Geography
Habitats
Haplotypes
history
History, Ancient
Inga
Models, Genetic
Molecular Sequence Data
Nonnative species
Peru
Phylogeography
Plant populations
plastid DNA
Plastids
Population genetics
Principal Component Analysis
secondary contact
seed dispersal
Sequence Analysis, DNA
Soil
Soil - chemistry
Species
species diversity
Species Specificity
Synecology
Trees
Tropical Climate
title Historical effects on beta diversity and community assembly in Amazonian trees
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