Species interactions and a chain of indirect effects driven by reduced precipitation

Climate change can affect species directly and indirectly by altering interactions between species within communities. These indirect effects can ramify through a community and affect many species, including some that may not have been directly affected by the perturbation. Identifying these chains...

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Veröffentlicht in:Ecology (Durham) 2014-02, Vol.95 (2), p.486-494
Hauptverfasser: Barton, Brandon T, Ives, Anthony R
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container_title Ecology (Durham)
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creator Barton, Brandon T
Ives, Anthony R
description Climate change can affect species directly and indirectly by altering interactions between species within communities. These indirect effects can ramify through a community and affect many species, including some that may not have been directly affected by the perturbation. Identifying these chains of indirect effects is difficult, and most studies only follow indirect effects across two or three species. Here, we use a factorial field experiment to demonstrate that precipitation affects spotted aphids through a complex chain of indirect interactions that are mediated by other herbivores and a generalist predator. We experimentally simulated drought, which reduced water content in alfalfa plants. While water stress in alfalfa had no direct effect on spotted aphids, it lowered the population growth rate of pea aphids, another common alfalfa pest. Because ladybeetle predators were attracted to high pea aphid densities, predator densities were lower in drought treatments. Consequently, spotted aphid densities were released from top-down control (apparent competition) in drought treatments and reached densities three times higher than spotted aphids in ambient treatments with high pea aphid densities. Thus, drought affected spotted aphids in the interaction chain: drought → alfalfa → pea aphids → predators → spotted aphids. This result illustrates the lengthy path that indirect effects of climate change may take through a community, as well as the importance of community-level experiments in determining the net effect of climate change.
doi_str_mv 10.1890/13-0044.1
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These indirect effects can ramify through a community and affect many species, including some that may not have been directly affected by the perturbation. Identifying these chains of indirect effects is difficult, and most studies only follow indirect effects across two or three species. Here, we use a factorial field experiment to demonstrate that precipitation affects spotted aphids through a complex chain of indirect interactions that are mediated by other herbivores and a generalist predator. We experimentally simulated drought, which reduced water content in alfalfa plants. While water stress in alfalfa had no direct effect on spotted aphids, it lowered the population growth rate of pea aphids, another common alfalfa pest. Because ladybeetle predators were attracted to high pea aphid densities, predator densities were lower in drought treatments. 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subjects Acyrthosiphon pisum
Alfalfa
Animals
Aphididae
Aphids - physiology
apparent competition
biocontrol
Climate Change
Coleoptera - physiology
Communities
Drought
Droughts
Ecology
Ecosystem
field experimentation
Herbivores
Insects
ladybeetles
Medicago sativa
Medicago sativa - physiology
mesocosm field experiment, Madison, Wisconsin, USA
pea aphid
pea aphid, Acyrthosiphon pisum
Peas
pests
population growth
Precipitation
Predation
predator-prey interactions
Predators
Predatory Behavior
Rain
Species
spotted aphid
spotted aphid, Therioaphis maculata
Synecology
Therioaphis maculata
Time Factors
top-down control
water content
water stress
Wisconsin
title Species interactions and a chain of indirect effects driven by reduced precipitation
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