Traits and phylogenetic history contribute to network structure across Canadian plant–pollinator communities

Interaction webs, or networks, define how the members of two or more trophic levels interact. However, the traits that mediate network structure have not been widely investigated. Generally, the mechanism that determines plant-pollinator partnerships is thought to involve the matching of a suite of...

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Veröffentlicht in:Oecologia 2014-10, Vol.176 (2), p.545-556
Hauptverfasser: Chamberlain, Scott A, Cartar, Ralph V, Worley, Anne C, Semmler, Sarah J, Gielens, Grahame, Elwell, Sherri, Evans, Megan E, Vamosi, Jana C, Elle, Elizabeth
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container_issue 2
container_start_page 545
container_title Oecologia
container_volume 176
creator Chamberlain, Scott A
Cartar, Ralph V
Worley, Anne C
Semmler, Sarah J
Gielens, Grahame
Elwell, Sherri
Evans, Megan E
Vamosi, Jana C
Elle, Elizabeth
description Interaction webs, or networks, define how the members of two or more trophic levels interact. However, the traits that mediate network structure have not been widely investigated. Generally, the mechanism that determines plant-pollinator partnerships is thought to involve the matching of a suite of species traits (such as abundance, phenology, morphology) between trophic levels. These traits are often unknown or hard to measure, but may reflect phylogenetic history. We asked whether morphological traits or phylogenetic history were more important in mediating network structure in mutualistic plant-pollinator interaction networks from Western Canada. At the plant species level, sexual system, growth form, and flower symmetry were the most important traits. For example species with radially symmetrical flowers had more connections within their modules (a subset of species that interact more among one another than outside of the module) than species with bilaterally symmetrical flowers. At the pollinator species level, social species had more connections within and among modules. In addition, larger pollinators tended to be more specialized. As traits mediate interactions and have a phylogenetic signal, we found that phylogenetically close species tend to interact with a similar set of species. At the network level, patterns were weak, but we found increasing functional trait and phylogenetic diversity of plants associated with increased weighted nestedness. These results provide evidence that both specific traits and phylogenetic history can contribute to the nature of mutualistic interactions within networks, but they explain less variation between networks.
doi_str_mv 10.1007/s00442-014-3035-2
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subjects Animal and plant ecology
Animal, plant and microbial ecology
Animals
Behavior, Animal
Biological and medical sciences
Biological taxonomies
Biomedical and Life Sciences
Canada
COMMUNITY ECOLOGY
Community ecology - Original research
Community structure
Ecology
Ecosystem
Flowers
Flowers - anatomy & histology
Functional diversity
Fundamental and applied biological sciences. Psychology
General aspects
Hydrology/Water Resources
Insecta - classification
Insecta - genetics
Life Sciences
nestedness
phenology
Phenotype
Phylogenetics
Phylogeny
Plant diversity
Plant Sciences
Plant species
Plants
Plants - classification
Plants - genetics
Pollinating insects
Pollination
Pollinators
Social Behavior
Social interaction
Symbiosis
Trees - classification
Trees - genetics
Trophic levels
trophic relationships
webs
title Traits and phylogenetic history contribute to network structure across Canadian plant–pollinator communities
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