Transcriptional changes in the aphid species Myzus cerasi under different host and environmental conditions

Aphids feature complex life cycles, which in the case of many agriculturally important species involve primary and secondary host plant species. Whilst host alternation between primary and secondary host can occur in the field depending on host availability and the environment, aphid populations mai...

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Veröffentlicht in:Insect molecular biology 2020-06, Vol.29 (3), p.271-282
Hauptverfasser: Thorpe, P., Escudero‐Martinez, C. M., Akker, S., Bos, J. I. B.
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creator Thorpe, P.
Escudero‐Martinez, C. M.
Akker, S.
Bos, J. I. B.
description Aphids feature complex life cycles, which in the case of many agriculturally important species involve primary and secondary host plant species. Whilst host alternation between primary and secondary host can occur in the field depending on host availability and the environment, aphid populations maintained as laboratory stocks generally are kept under conditions that allow asexual reproduction by parthenogenesis on secondary hosts. We used Myzus cerasi (black cherry aphid) to assess aphid transcriptional differences between populations collected from primary hosts in the field and those adapted to secondary hosts under controlled environment conditions. Transfer of M. cerasi collected from local cherry trees to reported secondary host species resulted in low survival rates. Moreover, aphids were unable to survive on the secondary host land cress, unless first adapted to another secondary host, cleavers. Transcriptome analyses of the different aphid populations (field collected and adapted) revealed extensive transcriptional plasticity to a change in environment, with predominantly genes involved in redox reactions differentially regulated. Most of the differentially expressed genes were duplicated and we found evidence for differential exon usage. Our data suggest that aphid adaptation to different environments may pose a major hurdle and leads to extensive gene expression changes. Limited survival when aphids collected from primary hosts in the field are transferred to secondary hosts in a lab environment. Extensive transcriptional responses in aphids associated with a change in host and/or environment. Differential regulation of sets of genes, many of which are involved in detoxification/redox.
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subjects Adaptation, Biological
Animals
aphid host adaptation
Aphidoidea
Aphids - genetics
Aphids - physiology
Asexual reproduction
detoxification
Environment
Environmental conditions
Food Chain
Fruit trees
Fruits
Gene duplication
Gene expression
Gene Expression Profiling
Genes
Host alternation
Host plants
Insects
laboratory environment
Life cycles
Myzus
Original
Parthenogenesis
Plant species
Populations
Redox reactions
RNAseq
Species
Transcription
Transcriptome
title Transcriptional changes in the aphid species Myzus cerasi under different host and environmental conditions
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