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INTRAGUILD PREDATION DRIVES EVOLUTIONARY NICHE SHIFT IN THREESPINE STICKLEBACK
Intraguild predation—competition and predation by the same antagonist—is widespread, but its evolutionary consequences are unknown. Intraguild prey may evolve antipredator defenses, superior competitive ability on shared resources, or the ability to use an alternative resource, any of which may alte...
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Published in: | Evolution 2012-06, Vol.66 (6), p.1819-1832 |
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container_title | Evolution |
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creator | Ingram, Travis Svanbäck, Richard Kraft, Nathan J. B. Kratina, Pavel Southcott, Laura Schluter, Dolph |
description | Intraguild predation—competition and predation by the same antagonist—is widespread, but its evolutionary consequences are unknown. Intraguild prey may evolve antipredator defenses, superior competitive ability on shared resources, or the ability to use an alternative resource, any of which may alter the structure of the food web. We tested for evolutionary responses by threespine stickleback to a benthic intraguild predator, prickly sculpin. We used a comparative morphometric analysis to show that stickleback sympatric with sculpin are more armored and have more limnetic-like body shapes than allopatric stickleback. To test the ecological implications of this shift, we conducted a mesocosm experiment that varied sculpin presence and stickleback population of origin (from one sympatric and one allopatric lake). Predation by sculpin greatly increased the mortality of allopatric stickleback. In contrast, sculpin presence did not affect the mortality of sympatric stickleback, although they did have lower growth rates suggesting increased nonpredatory effects of sculpin. Consistent with their morphology, sympatric stickleback included more pelagic prey in their diets, leading to depletion of Zooplankton in the mesocosms. These findings suggest that intraguild prey evolution has altered food web structure by reducing both predation by the intraguild predator and diet overlap between species. |
doi_str_mv | 10.1111/j.1558-5646.2011.01545.x |
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B. ; Kratina, Pavel ; Southcott, Laura ; Schluter, Dolph</creator><creatorcontrib>Ingram, Travis ; Svanbäck, Richard ; Kraft, Nathan J. B. ; Kratina, Pavel ; Southcott, Laura ; Schluter, Dolph</creatorcontrib><description>Intraguild predation—competition and predation by the same antagonist—is widespread, but its evolutionary consequences are unknown. Intraguild prey may evolve antipredator defenses, superior competitive ability on shared resources, or the ability to use an alternative resource, any of which may alter the structure of the food web. We tested for evolutionary responses by threespine stickleback to a benthic intraguild predator, prickly sculpin. We used a comparative morphometric analysis to show that stickleback sympatric with sculpin are more armored and have more limnetic-like body shapes than allopatric stickleback. To test the ecological implications of this shift, we conducted a mesocosm experiment that varied sculpin presence and stickleback population of origin (from one sympatric and one allopatric lake). Predation by sculpin greatly increased the mortality of allopatric stickleback. In contrast, sculpin presence did not affect the mortality of sympatric stickleback, although they did have lower growth rates suggesting increased nonpredatory effects of sculpin. Consistent with their morphology, sympatric stickleback included more pelagic prey in their diets, leading to depletion of Zooplankton in the mesocosms. 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B.</creatorcontrib><creatorcontrib>Kratina, Pavel</creatorcontrib><creatorcontrib>Southcott, Laura</creatorcontrib><creatorcontrib>Schluter, Dolph</creatorcontrib><title>INTRAGUILD PREDATION DRIVES EVOLUTIONARY NICHE SHIFT IN THREESPINE STICKLEBACK</title><title>Evolution</title><addtitle>Evolution</addtitle><description>Intraguild predation—competition and predation by the same antagonist—is widespread, but its evolutionary consequences are unknown. Intraguild prey may evolve antipredator defenses, superior competitive ability on shared resources, or the ability to use an alternative resource, any of which may alter the structure of the food web. We tested for evolutionary responses by threespine stickleback to a benthic intraguild predator, prickly sculpin. We used a comparative morphometric analysis to show that stickleback sympatric with sculpin are more armored and have more limnetic-like body shapes than allopatric stickleback. To test the ecological implications of this shift, we conducted a mesocosm experiment that varied sculpin presence and stickleback population of origin (from one sympatric and one allopatric lake). Predation by sculpin greatly increased the mortality of allopatric stickleback. In contrast, sculpin presence did not affect the mortality of sympatric stickleback, although they did have lower growth rates suggesting increased nonpredatory effects of sculpin. Consistent with their morphology, sympatric stickleback included more pelagic prey in their diets, leading to depletion of Zooplankton in the mesocosms. 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subjects | Animals Benthic invertebrates Biological Evolution Biomass Character displacement Comparative analysis Cottus asper Diet Ecological competition Ecological genetics Evolution Food webs Gasterosteus aculeatus geometric morphometrics mesocosm experiment Mortality omnivory Plankton Predation Predators Predatory Behavior Sculpin Smegmamorpha - anatomy & histology Smegmamorpha - genetics Smegmamorpha - growth & development Smegmamorpha - physiology Zooplankton |
title | INTRAGUILD PREDATION DRIVES EVOLUTIONARY NICHE SHIFT IN THREESPINE STICKLEBACK |
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