Insect–plant relationships predict the speed of insecticide adaptation
Abstract Herbivorous insects must circumvent the chemical defenses of their host plants and, in cropping systems, must also circumvent synthetic insecticides. The pre‐adaptation hypothesis posits that when herbivorous insects evolve resistance to insecticides, they co‐opt adaptations against host pl...
Main Authors: | , , |
---|---|
Format: | Article |
Language: | English |
Published: |
Wiley
2021-02-01
|
Series: | Evolutionary Applications |
Subjects: | |
Online Access: | https://doi.org/10.1111/eva.13089 |
id |
doaj-dd3b5fcf2bbf4762bec0f81bb24a2304 |
---|---|
record_format |
Article |
spelling |
doaj-dd3b5fcf2bbf4762bec0f81bb24a23042021-02-20T16:47:35ZengWileyEvolutionary Applications1752-45712021-02-0114229029610.1111/eva.13089Insect–plant relationships predict the speed of insecticide adaptationMichael S. Crossley0William E. Snyder1Nate B. Hardy2Department of Entomology University of Georgia Athens GA USADepartment of Entomology University of Georgia Athens GA USADepartment of Entomology and Plant Pathology Auburn University Auburn AL USAAbstract Herbivorous insects must circumvent the chemical defenses of their host plants and, in cropping systems, must also circumvent synthetic insecticides. The pre‐adaptation hypothesis posits that when herbivorous insects evolve resistance to insecticides, they co‐opt adaptations against host plant defenses. Despite its intuitive appeal, few predictions of this hypothesis have been tested systematically. Here, with survival analysis of more than 17,000 herbivore–insecticide interactions, we show that resistance evolution tends to be faster when herbivorous insect diets are broad (but not too broad) and when insecticides and plant defensive chemicals are similar (but not too similar). These general relations suggest a complex interplay between macro‐evolutionary contingencies and contemporary population genetic processes, and provide a predictive framework to forecast which pest species are most likely to develop resistance to particular insecticide chemistries.https://doi.org/10.1111/eva.13089insecticide resistanceplant–insect interactionspopulation geneticspre‐adaptationsurvival analysis |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Michael S. Crossley William E. Snyder Nate B. Hardy |
spellingShingle |
Michael S. Crossley William E. Snyder Nate B. Hardy Insect–plant relationships predict the speed of insecticide adaptation Evolutionary Applications insecticide resistance plant–insect interactions population genetics pre‐adaptation survival analysis |
author_facet |
Michael S. Crossley William E. Snyder Nate B. Hardy |
author_sort |
Michael S. Crossley |
title |
Insect–plant relationships predict the speed of insecticide adaptation |
title_short |
Insect–plant relationships predict the speed of insecticide adaptation |
title_full |
Insect–plant relationships predict the speed of insecticide adaptation |
title_fullStr |
Insect–plant relationships predict the speed of insecticide adaptation |
title_full_unstemmed |
Insect–plant relationships predict the speed of insecticide adaptation |
title_sort |
insect–plant relationships predict the speed of insecticide adaptation |
publisher |
Wiley |
series |
Evolutionary Applications |
issn |
1752-4571 |
publishDate |
2021-02-01 |
description |
Abstract Herbivorous insects must circumvent the chemical defenses of their host plants and, in cropping systems, must also circumvent synthetic insecticides. The pre‐adaptation hypothesis posits that when herbivorous insects evolve resistance to insecticides, they co‐opt adaptations against host plant defenses. Despite its intuitive appeal, few predictions of this hypothesis have been tested systematically. Here, with survival analysis of more than 17,000 herbivore–insecticide interactions, we show that resistance evolution tends to be faster when herbivorous insect diets are broad (but not too broad) and when insecticides and plant defensive chemicals are similar (but not too similar). These general relations suggest a complex interplay between macro‐evolutionary contingencies and contemporary population genetic processes, and provide a predictive framework to forecast which pest species are most likely to develop resistance to particular insecticide chemistries. |
topic |
insecticide resistance plant–insect interactions population genetics pre‐adaptation survival analysis |
url |
https://doi.org/10.1111/eva.13089 |
work_keys_str_mv |
AT michaelscrossley insectplantrelationshipspredictthespeedofinsecticideadaptation AT williamesnyder insectplantrelationshipspredictthespeedofinsecticideadaptation AT natebhardy insectplantrelationshipspredictthespeedofinsecticideadaptation |
_version_ |
1724259805603823616 |