Metabolic fingerprints reveal how an insect metabolome is affected by different larval host plant species

Oligophagous insects can consume a wide range of different host plant species, but how these host plants vary in their metabolite compositions and the extent to which this variation affects the biochemistry of the insect herbivores is largely unknown. An understanding of how defensive metabolites fr...

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Veröffentlicht in:Arthropod-plant interactions 2019-08, Vol.13 (4), p.571-579
Hauptverfasser: Riach, A. C., Perera, M. V. L., Florance, H. V., Robinson, L. A., Penfield, S. D., Hill, J. K.
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container_issue 4
container_start_page 571
container_title Arthropod-plant interactions
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creator Riach, A. C.
Perera, M. V. L.
Florance, H. V.
Robinson, L. A.
Penfield, S. D.
Hill, J. K.
description Oligophagous insects can consume a wide range of different host plant species, but how these host plants vary in their metabolite compositions and the extent to which this variation affects the biochemistry of the insect herbivores is largely unknown. An understanding of how defensive metabolites from plants are processed by insects may help us develop more effective pesticides. We studied the interactions between the oligophagous insect herbivore Pieris rapae (Lepidoptera: Pieridae) and five species of its larval host plants (family Brassicaceae and Cleomaceae) by examining untargeted metabolic fingerprints of the plants and the larval herbivores feeding on them. Visualisation of the metabolic fingerprints of the different host plant species showed highly distinctive clusters in the PCA-X score plots. Larvae could also be distinguished based on the species of host plant they fed on but clusters overlapped to a greater extent. The fingerprints of larvae feeding on Cleome spinosa plants were most distinctive due to a large group of abundant metabolites also found in high abundance in C. spinosa , but not in the other host plants examined. We conclude that host plants influence the biochemistry of their larval herbivores, and that some metabolites are conserved from one trophic level to the next.
doi_str_mv 10.1007/s11829-019-09671-6
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subjects Behavioral Sciences
Biochemistry
Biomedical and Life Sciences
Butterflies & moths
Clusters
Ecology
Entomology
Feeding
Fingerprints
Flowers & plants
Herbivores
Host plants
Insects
Invertebrates
Larvae
Life Sciences
Metabolites
Original Paper
Pesticides
Plant Pathology
Plant Sciences
Plant species
Plants (botany)
Species
Trophic levels
title Metabolic fingerprints reveal how an insect metabolome is affected by different larval host plant species
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