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Local adaptation and rapid evolution of aphids in response to genetic interactions with their cottonwood hosts.

Identifieur interne : 000287 ( Main/Exploration ); précédent : 000286; suivant : 000288

Local adaptation and rapid evolution of aphids in response to genetic interactions with their cottonwood hosts.

Auteurs : Stuart C. Wooley ; David Solance Smith ; Eric V. Lonsdorf ; Sarah C. Brown ; Thomas G. Whitham ; Stephen M. Shuster ; Richard L. Lindroth

Source :

RBID : pubmed:33072278

Abstract

Several studies have demonstrated the ecological consequences of genetic variation within a single plant species. For example, these studies show that individual plant genotypes support unique composition of the plants' associated arthropod community. By contrast, fewer studies have explored how plant genetic variation may influence evolutionary dynamics in the plant's associated species. Here, we examine how aphids respond evolutionarily to genetic variation in their host plant. We conducted two experiments to examine local adaptation and rapid evolution of the free-feeding aphid Chaitophorus populicola across genetic variants of its host plant, Populus angustifolia. To test for local adaptation, we collected tree cuttings and aphid colonies from three sites along an elevation/climate gradient and conducted a reciprocal transplant experiment. In general, home aphids (aphids transplanted onto trees from the same site) produced 1.7-3.4 times as many offspring as foreign aphids (aphids transplanted onto trees from different sites). To test for rapid evolution, we used 4 clonally replicated aphid genotypes and transplanted each onto 5 clonally replicated P. angustifolia genotypes. Each tree genotype started with the same aphid genotype composition. After 21 days (~two aphid generations), aphid genotype composition changed (i.e., aphids evolved) and some tree genotypes supported unique evolutionary trajectories of aphids. These results suggest that plant evolution in response to human perturbation, such as climate change and invasive species, will also result in evolutionary responses in strongly interacting species that could cascade to affect whole communities.

DOI: 10.1002/ece3.6709
PubMed: 33072278
PubMed Central: PMC7548174


Affiliations:


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Le document en format XML

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<div type="abstract" xml:lang="en">Several studies have demonstrated the ecological consequences of genetic variation within a single plant species. For example, these studies show that individual plant genotypes support unique composition of the plants' associated arthropod community. By contrast, fewer studies have explored how plant genetic variation may influence evolutionary dynamics in the plant's associated species. Here, we examine how aphids respond evolutionarily to genetic variation in their host plant. We conducted two experiments to examine local adaptation and rapid evolution of the free-feeding aphid
<i>Chaitophorus populicola</i>
across genetic variants of its host plant,
<i>Populus angustifolia</i>
. To test for local adaptation, we collected tree cuttings and aphid colonies from three sites along an elevation/climate gradient and conducted a reciprocal transplant experiment. In general, home aphids (aphids transplanted onto trees from the same site) produced 1.7-3.4 times as many offspring as foreign aphids (aphids transplanted onto trees from different sites). To test for rapid evolution, we used 4 clonally replicated aphid genotypes and transplanted each onto 5 clonally replicated
<i>P. angustifolia</i>
genotypes. Each tree genotype started with the same aphid genotype composition. After 21 days (~two aphid generations), aphid genotype composition changed (i.e., aphids evolved) and some tree genotypes supported unique evolutionary trajectories of aphids. These results suggest that plant evolution in response to human perturbation, such as climate change and invasive species, will also result in evolutionary responses in strongly interacting species that could cascade to affect whole communities.</div>
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<AbstractText>Several studies have demonstrated the ecological consequences of genetic variation within a single plant species. For example, these studies show that individual plant genotypes support unique composition of the plants' associated arthropod community. By contrast, fewer studies have explored how plant genetic variation may influence evolutionary dynamics in the plant's associated species. Here, we examine how aphids respond evolutionarily to genetic variation in their host plant. We conducted two experiments to examine local adaptation and rapid evolution of the free-feeding aphid
<i>Chaitophorus populicola</i>
across genetic variants of its host plant,
<i>Populus angustifolia</i>
. To test for local adaptation, we collected tree cuttings and aphid colonies from three sites along an elevation/climate gradient and conducted a reciprocal transplant experiment. In general, home aphids (aphids transplanted onto trees from the same site) produced 1.7-3.4 times as many offspring as foreign aphids (aphids transplanted onto trees from different sites). To test for rapid evolution, we used 4 clonally replicated aphid genotypes and transplanted each onto 5 clonally replicated
<i>P. angustifolia</i>
genotypes. Each tree genotype started with the same aphid genotype composition. After 21 days (~two aphid generations), aphid genotype composition changed (i.e., aphids evolved) and some tree genotypes supported unique evolutionary trajectories of aphids. These results suggest that plant evolution in response to human perturbation, such as climate change and invasive species, will also result in evolutionary responses in strongly interacting species that could cascade to affect whole communities.</AbstractText>
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<Affiliation>Biology Department California State University San Bernardino San Bernardino California USA.</Affiliation>
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<Keyword MajorTopicYN="N">aphid</Keyword>
<Keyword MajorTopicYN="N">arthropod</Keyword>
<Keyword MajorTopicYN="N">community genetics</Keyword>
<Keyword MajorTopicYN="N">cottonwood</Keyword>
<Keyword MajorTopicYN="N">geographic mosaic</Keyword>
<Keyword MajorTopicYN="N">insect</Keyword>
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