Macroecological patterns and correlates of ant–tree interaction networks in Neotropical savannas

Aim Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such variation could help us to better understand the role of species interactions in maintaining biodiversity. In this study, we analysed the macroec...

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Published inGlobal ecology and biogeography Vol. 28; no. 9; pp. 1283 - 1294
Main Authors Dáttilo, Wesley, Vasconcelos, Heraldo L.
Format Journal Article
LanguageEnglish
Published Oxford Wiley 01.09.2019
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Abstract Aim Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such variation could help us to better understand the role of species interactions in maintaining biodiversity. In this study, we analysed the macroecological patterns of the structure and interaction beta diversity of interaction networks involving trees and ants. Location Twenty‐nine sites encompassing 20 degrees of latitude throughout the Neotropical savanna. Time period 2010–2015. Major taxa studied Trees and arboreal nesting ants. Methods For each site, we built an interaction network and calculated network size, interaction diversity (Shannon diversity of interactions), specialization, modularity, nestedness, and interaction dissimilarity (contribution of each network to the regional pool of possible interactions). We also determined how interaction beta diversity varied among all sampling sites. Net primary productivity (NPP), temperature and rainfall were evaluated as potential correlates of the observed changes in network descriptors and interaction beta diversity. Results We found no latitudinal gradient in network specialization, nestedness or modularity. However, sites at higher latitudes had larger networks, higher interaction diversity and higher interaction dissimilarity, and this was correlated mainly with the latitudinal variation in NPP. Interaction rewiring generated by the reassembly of the interactions between the same species in different sites was the main contributor to the total interaction beta diversity. However, the level of interaction rewiring was independent of the geographical and environmental distance between sampling sites. Main conclusions Ant–tree network structure remained relatively invariant across the latitudinal and environmental gradient possibly due to high interaction rewiring among the partners. Moreover, our findings show that more productive sites, located at higher latitudes, have high dissimilarity to the regional pool of possible interactions (i.e., strong interaction filtering), indicating that these sites significantly contribute to the maintenance of interaction biodiversity in Neotropical savannas.
AbstractList AimSimilar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such variation could help us to better understand the role of species interactions in maintaining biodiversity. In this study, we analysed the macroecological patterns of the structure and interaction beta diversity of interaction networks involving trees and ants.LocationTwenty‐nine sites encompassing 20 degrees of latitude throughout the Neotropical savanna.Time period2010–2015.Major taxa studiedTrees and arboreal nesting ants.MethodsFor each site, we built an interaction network and calculated network size, interaction diversity (Shannon diversity of interactions), specialization, modularity, nestedness, and interaction dissimilarity (contribution of each network to the regional pool of possible interactions). We also determined how interaction beta diversity varied among all sampling sites. Net primary productivity (NPP), temperature and rainfall were evaluated as potential correlates of the observed changes in network descriptors and interaction beta diversity.ResultsWe found no latitudinal gradient in network specialization, nestedness or modularity. However, sites at higher latitudes had larger networks, higher interaction diversity and higher interaction dissimilarity, and this was correlated mainly with the latitudinal variation in NPP. Interaction rewiring generated by the reassembly of the interactions between the same species in different sites was the main contributor to the total interaction beta diversity. However, the level of interaction rewiring was independent of the geographical and environmental distance between sampling sites.Main conclusionsAnt–tree network structure remained relatively invariant across the latitudinal and environmental gradient possibly due to high interaction rewiring among the partners. Moreover, our findings show that more productive sites, located at higher latitudes, have high dissimilarity to the regional pool of possible interactions (i.e., strong interaction filtering), indicating that these sites significantly contribute to the maintenance of interaction biodiversity in Neotropical savannas.
AIM: Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such variation could help us to better understand the role of species interactions in maintaining biodiversity. In this study, we analysed the macroecological patterns of the structure and interaction beta diversity of interaction networks involving trees and ants. LOCATION: Twenty‐nine sites encompassing 20 degrees of latitude throughout the Neotropical savanna. TIME PERIOD: 2010–2015. MAJOR TAXA STUDIED: Trees and arboreal nesting ants. METHODS: For each site, we built an interaction network and calculated network size, interaction diversity (Shannon diversity of interactions), specialization, modularity, nestedness, and interaction dissimilarity (contribution of each network to the regional pool of possible interactions). We also determined how interaction beta diversity varied among all sampling sites. Net primary productivity (NPP), temperature and rainfall were evaluated as potential correlates of the observed changes in network descriptors and interaction beta diversity. RESULTS: We found no latitudinal gradient in network specialization, nestedness or modularity. However, sites at higher latitudes had larger networks, higher interaction diversity and higher interaction dissimilarity, and this was correlated mainly with the latitudinal variation in NPP. Interaction rewiring generated by the reassembly of the interactions between the same species in different sites was the main contributor to the total interaction beta diversity. However, the level of interaction rewiring was independent of the geographical and environmental distance between sampling sites. MAIN CONCLUSIONS: Ant–tree network structure remained relatively invariant across the latitudinal and environmental gradient possibly due to high interaction rewiring among the partners. Moreover, our findings show that more productive sites, located at higher latitudes, have high dissimilarity to the regional pool of possible interactions (i.e., strong interaction filtering), indicating that these sites significantly contribute to the maintenance of interaction biodiversity in Neotropical savannas.
Aim Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such variation could help us to better understand the role of species interactions in maintaining biodiversity. In this study, we analysed the macroecological patterns of the structure and interaction beta diversity of interaction networks involving trees and ants. Location Twenty‐nine sites encompassing 20 degrees of latitude throughout the Neotropical savanna. Time period 2010–2015. Major taxa studied Trees and arboreal nesting ants. Methods For each site, we built an interaction network and calculated network size, interaction diversity (Shannon diversity of interactions), specialization, modularity, nestedness, and interaction dissimilarity (contribution of each network to the regional pool of possible interactions). We also determined how interaction beta diversity varied among all sampling sites. Net primary productivity (NPP), temperature and rainfall were evaluated as potential correlates of the observed changes in network descriptors and interaction beta diversity. Results We found no latitudinal gradient in network specialization, nestedness or modularity. However, sites at higher latitudes had larger networks, higher interaction diversity and higher interaction dissimilarity, and this was correlated mainly with the latitudinal variation in NPP. Interaction rewiring generated by the reassembly of the interactions between the same species in different sites was the main contributor to the total interaction beta diversity. However, the level of interaction rewiring was independent of the geographical and environmental distance between sampling sites. Main conclusions Ant–tree network structure remained relatively invariant across the latitudinal and environmental gradient possibly due to high interaction rewiring among the partners. Moreover, our findings show that more productive sites, located at higher latitudes, have high dissimilarity to the regional pool of possible interactions (i.e., strong interaction filtering), indicating that these sites significantly contribute to the maintenance of interaction biodiversity in Neotropical savannas.
Author Dáttilo, Wesley
Vasconcelos, Heraldo L.
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Notes Data Availability Statement
The data from this study are archived in the Figshare data repository. All response and predictor variables are available at
http://doi.org/10.6084/m9.figshare.6998486
Ant–plant interaction networks are available at
https://doi.org/10.6084/m9.figshare.5950306
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Snippet Aim Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such...
AimSimilar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such...
AIM: Similar to species richness, ecological interactions can vary across latitudinal and environmental gradients. Knowing the patterns and drivers of such...
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SubjectTerms Ants
Biodiversity
Correlation
ecological competition
ecological networks
environmental distance
Environmental gradient
Formicidae
geographical distance
interaction rewiring
interaction turnover
latitude
latitudinal gradient
Modularity
Neotropical savanna
Neotropics
nestedness
Nesting
Net Primary Productivity
network dissimilarity
Networks
Plant diversity
rain
Rainfall
Research Papers
Rewiring
Sampling
Savannahs
savannas
Specialization
Species richness
Strong interactions (field theory)
temperature
Trees
Title Macroecological patterns and correlates of ant–tree interaction networks in Neotropical savannas
URI https://www.jstor.org/stable/26799209
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fgeb.12932
https://www.proquest.com/docview/2272029332
https://www.proquest.com/docview/2335138563
Volume 28
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