Plant Cell & Environment · 2016 · 78 citations · 65 references
Life SciencesPlant BiologyPlant SciencesPlant BiochemistryPlant Molecular BiologyPlant PhysiologyInsect ResistanceInsect-plant InteractionsPlant Defense ResponsesPlant MetabolomicsPlant-herbivore InteractionsWound ResponseGene Expression Response To HerbivoryHerbivore-induced Plant ResponsesMaize CultivationMechanical DamagePlant Defense MechanismsPlant SurvivalSpecialist HerbivoresStaple Crops
Attack from insect herbivores poses a major threat to plant survival, and accordingly, plants have evolved sophisticated defence systems. Maize is cultivated as a staple crop worldwide, and insect feeding causes large production losses. Despite its importance in agriculture, little is known about how maize reacts to insect herbivory. Taking advantage of advances in sequencing and mass spectrometry technology, we studied the response of maize to mechanical wounding and simulated Mythimna separata (a specialist insect) herbivory by applying its oral secretions (OS) to wounds. In comparison to the responses induced by mechanical wounding, OS elicited larger and longer-lasting changes in the maize transcriptome, proteome, metabolome and phytohormones. Specifically, many genes, proteins and metabolites were uniquely induced or repressed by OS. Nearly 290 transcription factor genes from 39 families were involved in OS-induced responses, and among these, more transcription factor genes were specifically regulated by OS than by wounding. This study provides a large-scale omics dataset for understanding maize response to chewing insects and highlights the essential role of OS in plant-insect interactions.
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Daehwan Kim, Geo Pertea, Cole Trapnell et al. · Genome biology · 2013 · 13.7K citations · Full text
Universal sample preparation method for proteome analysis
Jacek R. Wiśniewski, Alexandre Zougman, Nagarjuna Nagaraj et al. · Nature Methods · 2009 · 8.7K citations
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