Volatile-Mediated Signalling Between Potato Plants in Response to Insect Herbivory is not Contingent on Soil Nutrients

Plant-plant signalling via volatile organic compounds (VOCs) has been studied intensively, but its contingency on abiotic conditions (e.g., soil nutrients, drought, warming) is poorly understood. To address this gap, we carried out a greenhouse experiment testing whether soil nutrients influenced si...

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Veröffentlicht in:Journal of chemical ecology 2023-10, Vol.49 (9-10), p.507-517
Hauptverfasser: Martín-Cacheda, Lucía, Vázquez-González, Carla, Rasmann, Sergio, Röder, Gregory, Abdala-Roberts, Luis, Moreira, Xoaquín
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container_issue 9-10
container_start_page 507
container_title Journal of chemical ecology
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creator Martín-Cacheda, Lucía
Vázquez-González, Carla
Rasmann, Sergio
Röder, Gregory
Abdala-Roberts, Luis
Moreira, Xoaquín
description Plant-plant signalling via volatile organic compounds (VOCs) has been studied intensively, but its contingency on abiotic conditions (e.g., soil nutrients, drought, warming) is poorly understood. To address this gap, we carried out a greenhouse experiment testing whether soil nutrients influenced signalling between potato ( Solanum tuberosum ) plants in response to insect leaf herbivory by the generalist caterpillar Spodoptera exigua . We placed pairs of plants in plastic cages, where one plant acted as a VOC emitter and the other as a receiver. We factorially manipulated soil nutrients for both emitter and receiver plants, namely: unfertilized (baseline soil nutrients) vs. fertilized (augmented nutrients). Then, to test for signalling effects, half of the emitters within each fertilization level were damaged by S. exigua larvae and the other half remained undamaged. Three days after placing larvae, we collected VOCs from emitter plants to test for herbivory and fertilization effects on VOC emissions and placed S. exigua larvae on receivers to test for signalling effects on leaf consumption and larval mass gain as proxies of induced resistance. We found that herbivory increased total VOC emissions and altered VOC composition by emitter plants, but these effects were not contingent on fertilization. In addition, bioassay results showed that receivers exposed to VOCs from herbivore-damaged emitters had lower levels of herbivory compared to receivers exposed to undamaged emitters. However, and consistent with VOC results, fertilization did not influence herbivore-induced signalling effects on receiver resistance to herbivory. In sum, we found evidence of S. exigua -induced signalling effects on resistance to herbivory in potato plants but such effects were not affected by increased soil nutrients. These results call for further work testing signalling effects under broader range of nutrient concentration levels (including nutrient limitation), teasing apart the effects of specific nutrients, and incorporating other abiotic factors likely to interact or covary with soil nutrients.
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subjects Abiotic factors
Agriculture
Animals
Bioassays
Biochemistry
Biological Microscopy
Biomedical and Life Sciences
Contingency
Defense mechanisms
Drought
Ecology
Emissions
Emitters
Entomology
Fertilization
greenhouse experimentation
Herbivores
Herbivory
induced resistance
Insecta
Insects
Larva - physiology
Larvae
Leaves
Life Sciences
Nutrient concentrations
nutrient content
Nutrients
Organic compounds
Pest resistance
Plants
Plants (botany)
Potatoes
Receivers
soil
Soil nutrients
Soil testing
Soils
Solanum tuberosum
Spodoptera exigua
VOCs
Volatile organic compounds
Volatile Organic Compounds - pharmacology
title Volatile-Mediated Signalling Between Potato Plants in Response to Insect Herbivory is not Contingent on Soil Nutrients
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