0000000000354539

AUTHOR

Erik H. Poelman

showing 11 related works from this author

Symbiotic polydnavirus and venom reveal parasitoid to its hyperparasitoids

2018

Symbiotic relationships benefit organisms in utilization of new niches. In parasitoid wasps, symbiotic viruses and venom that are injected together with wasp eggs into the host caterpillar suppress immune responses of the host and enhance parasitoid survival. We found that the virus also has negative effects on offspring survival when placing these interactions in a community context. The virus and venom drive a chain of interactions that includes the herbivore and its food plant and attracts the hyperparasitoid enemies of the parasitoid. Our results shed new light on the importance of symbionts associated with their host in driving ecological interactions and highlight the intricacy of how…

0106 biological sciences0301 basic medicineWasps01 natural sciencesMultitrophic interactionParasitoidHerbivore-induced plant volatilesGene Expression Regulation PlantLaboratory of EntomologyTrophic levelPlant-mediatedLarvaMultidisciplinarybiologyPolydnavirusHerbivore-induced plant volatilePlantsBiological SciencesWaspPE&RCOrganische ChemieBiosystematiekInteraction networkinternationalLarvaSymbiosiButterfliesZoology010603 evolutionary biologyHost-Parasite Interactions03 medical and health sciencesMultitrophic interactionsSymbiosisButterflieAnimalsSymbiosisCaterpillarSalivaEcosystemHerbivoreParasitic waspVenomsHost (biology)AnimalOrganic ChemistryfungiPlantLaboratorium voor Entomologiebiology.organism_classificationVenom030104 developmental biologySettore AGR/11 - Entomologia Generale E ApplicataPolydnaviridaeHerbivoreBiosystematicsEPS
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Plant-phenotypic changes induced by parasitoid ichnoviruses enhance the performance of both unparasitized and parasitized caterpillars

2021

Early Access; International audience; There is increasing awareness that interactions between plants and insects can be mediated by microbial symbionts. Nonetheless, evidence showing that symbionts associated with organisms beyond the second trophic level affect plant-insect interactions are restricted to a few cases belonging to parasitoid-associated bracoviruses. Insect parasitoids harbor a wide array of symbionts which, like bracoviruses, can be injected into their herbivorous hosts to manipulate their physiology and behavior. Yet, the function of these symbionts in plant-based trophic webs remains largely overlooked. Here we provide the first evidence of a parasitoid-associated symbiont…

0106 biological sciencesProteomics[SDV]Life Sciences [q-bio]Waspsplant-mediated species interactionsInsect01 natural sciencesParasitoidLaboratory of Entomologymedia_commonTrophic levelparasitoid-associated symbiont2. Zero hunger[SDV.EE]Life Sciences [q-bio]/Ecology environment0303 health sciencesparasitoid‐associated symbiontsbiologyfood and beveragesPE&RChost-parasitoid interaction[SDV] Life Sciences [q-bio][SDV.EE] Life Sciences [q-bio]/Ecology environmentLarvapolydnaviruseOriginal Articleplant‐mediated species interactionsBracovirusfood.ingredientmedia_common.quotation_subjectZoologyContext (language use)Ecological Interactions010603 evolutionary biologyplant-herbivore-microbe interactionsHost-Parasite Interactions03 medical and health sciencesfoodplant-herbivore-microbe interactionGeneticsAnimalsHerbivoryCaterpillarplant‐herbivore‐microbe interactionsEcology Evolution Behavior and Systematics030304 developmental biologyHerbivorefungiOriginal Articlesbiology.organism_classificationLaboratorium voor EntomologiepolydnavirusesPolydnaviridaeparasitoid-associated symbiontsIchnovirusEPShost‐parasitoid interactionplant-mediated species interaction
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Impact of parasitoid-associated polydnaviruses on plant-mediated herbivore interactions

2022

Insect herbivores interact via plant-mediated interactions in which one herbivore species induces changes in plant quality that affects the performance of a second phytophagous insect that shares the food plant. These interactions are often asymmetric due to specificity in induced plant responses to herbivore attack, amount of plant damage, elicitors in herbivore saliva and plant organ damaged by herbivores. Parasitoids and their symbiotic polydnaviruses alter herbivore physiology and behaviour and may influence how plants respond to parasitized herbivores. We argue that these phenomena affect plant-mediated interactions between herbivores. We identify that the extended phenotype of parasit…

Food plantplant-mediated interaction networksInsectamedia_common.quotation_subjectWaspsInsectHost-Parasite InteractionsParasitoidLife ScienceAnimalsHerbivoryparasitoid microbetrait-mediated indirect interactionLaboratory of EntomologyEcology Evolution Behavior and Systematicsmedia_commonHerbivorebiologyEcologyextended phenotypefungifood and beveragesPlantsPE&RCLaboratorium voor Entomologiebiology.organism_classificationLarvaInsect Scienceplant-insect-microbe interactionPlant qualityCurrent Opinion in Insect Science
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Covariation and phenotypic integration in chemical communication displays: biosynthetic constraints and eco-evolutionary implications

2018

Chemical communication is ubiquitous. The identification of conserved structural elements in visual and acoustic communication is well established, but comparable information on chemical communication displays (CCDs) is lacking. We assessed the phenotypic integration of CCDs in a meta‐analysis to characterize patterns of covariation in CCDs and identified functional or biosynthetically constrained modules. Poorly integrated plant CCDs (i.e. low covariation between scent compounds) support the notion that plants often utilize one or few key compounds to repel antagonists or to attract pollinators and enemies of herbivores. Animal CCDs (mostly insect pheromones) were usually more integrated t…

0106 biological sciences0301 basic medicineEco evolutionaryanalysisPhysiologyPlant ScienceAnimal Breeding and GenomicsBiologyfloral scentsChemical communicationFloral scentsphenotypic integration010603 evolutionary biology01 natural sciencesChemical communication03 medical and health sciencesPhenotypic integrationbiosynthetic constraintsFokkerij en Genomicavegetative scentsLaboratory of Entomologycorrelation networkEcologyOrganic Chemistrychemical communicationPhenotypic integrationInsect pheromonesPE&RCLaboratorium voor Entomologiecorrelation network analysisOrganische ChemieCorrelation network analysisBiosynthetic constraints030104 developmental biologyEvolutionary biologyinternationalFloral scentIdentification (biology)EPSVegetative scentsNew Phytologist
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Parasitic wasp-associated symbiont affects plant-mediated species interactions between herbivores

2018

Abstract Microbial mutualistic symbiosis is increasingly recognised as a hidden driving force in the ecology of plant–insect interactions. Although plant-associated and herbivore-associated symbionts clearly affect interactions between plants and herbivores, the effects of symbionts associated with higher trophic levels has been largely overlooked. At the third-trophic level, parasitic wasps are a common group of insects that can inject symbiotic viruses (polydnaviruses) and venom into their herbivorous hosts to support parasitoid offspring development. Here, we show that such third-trophic level symbionts act in combination with venom to affect plant-mediated interactions by reducing colon…

0301 basic medicineHerbivore colonisationInsecta[SDV]Life Sciences [q-bio]tritrophic interactionWaspsVenomParasitoidchenilleLaboratory of EntomologyTrophic levelbiologyEcologyPolydnavirusHost-Parasite Interactionfood and beveragesplant–insect interactionsHerbivore colonisation parasitoid plant–insect interactions polydnaviruses tritrophic interactionsPE&RCsymbiosisParasiteinternationalpolydnaviruse[SDE]Environmental Sciencespolydnavirussymbioseécologie des populationsinteraction plante insecteherbivoreplant–insect interactionHost-Parasite Interactions03 medical and health sciencesSymbiosisAnimalsParasitesHerbivoryguêpeCaterpillarparasitoidEcology Evolution Behavior and SystematicsHerbivoreAnimaltritrophic interactionsfungi15. Life on landplant-insect interactionsLaboratorium voor Entomologiebiology.organism_classificationplant insect interactionherbivore colonisationpolydnavirusesColonisationSettore AGR/11 - Entomologia Generale E Applicata030104 developmental biologycaterpillarEPS
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Understanding insect foraging in complex habitats by comparing trophic levels: insights from specialist host-parasitoid-hyperparasitoid systems

2019

Insects typically forage in complex habitats in which their resources are surrounded by non-resources. For herbivores, pollinators, parasitoids, and higher level predators research has focused on how specific trophic levels filter and integrate information from cues in their habitat to locate resources. However, these insights frequently build specific theory per trophic level and seldom across trophic levels. Here, we synthesize advances in understanding of insect foraging behavior in complex habitats by comparing trophic levels in specialist host-parasitoid-hyperparasitoid systems. We argue that resources may become less apparent to foraging insects when they are member of higher trophic …

0106 biological sciencesForage (honey bee)Food ChainInsectaForagingBiology010603 evolutionary biology01 natural sciencesCuePredationFood chainVolatile Organic CompoundLife ScienceAnimalsHerbivoryLaboratory of EntomologyEcology Evolution Behavior and SystematicsTrophic levelHerbivoreAppetitive BehaviorVolatile Organic CompoundsEcologyHost (biology)AnimalfungiFarm Systems Ecology GroupPlantPlantsPE&RCLaboratorium voor Entomologie010602 entomologySettore AGR/11 - Entomologia Generale E ApplicataHabitatInsect ScienceEPSCuesCurrent Opinion in Insect Science
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Exploiting chemical ecology to manage hyperparasitoids in biological control of arthropod pests

2020

Abstract Insect hyperparasitoids are fourth trophic level organisms that commonly occur in terrestrial food webs, yet they are relatively understudied. These top‐carnivores can disrupt biological pest control by suppressing the populations of their parasitoid hosts, leading to pest outbreaks, especially in confined environments such as greenhouses where augmentative biological control is used. There is no effective eco‐friendly strategy that can be used to control hyperparasitoids. Recent advances in the chemical ecology of hyperparasitoid foraging behavior have opened opportunities for manipulating these top‐carnivores in such a way that biological pest control becomes more efficient. We p…

0106 biological sciencesIntegrated pest managementBiological pest controlReview01 natural sciencespush-pullhyperparasitoid foraginginfochemical-based strategieLaboratory of Entomology/dk/atira/pure/sustainabledevelopmentgoals/industry_innovation_and_infrastructureinfochemical‐based strategiesTrophic levelEcologyPlan_S-Compliant-TAParasietenEnvironmental resource managementherbivore‐induced plant volatilespush‐pullGeneral MedicineChemical ecologyfourth trophic level organismherbivore-induced plant volatileinternationalSDG 9 - IndustryFood ChainForagingDuurzame gewasbeschermingEarly detectionmultitrophic interactionsBiologyHost-Parasite InteractionsGeleedpotigenAnimalsmultitrophic interactionfourth trophic level organismsInnovationPest Control BiologicalArthropodsbusiness.industryherbivore-induced plant volatilesLaboratorium voor Entomologiebiology.organism_classification010602 entomologyInsect Scienceand InfrastructureSDG 9 - Industry Innovation and InfrastructurePEST analysisArthropodEPSinfochemical-based strategiesbusinessAgronomy and Crop Science010606 plant biology & botanyPest Management Science
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Microbial symbionts of parasitoids

2020

Parasitoids depend on other insects for the development of their offspring. Their eggs are laid in or on a host insect that is consumed during juvenile development. Parasitoids harbor a diversity of microbial symbionts including viruses, bacteria, and fungi. In contrast to symbionts of herbivorous and hematophagous insects, parasitoid symbionts do not provide nutrients. Instead, they are involved in parasitoid reproduction, suppression of host immune responses, and manipulation of the behavior of herbivorous hosts. Moreover, recent research has shown that parasitoid symbionts such as polydnaviruses may also influence plant-mediated interactions among members of plant-associated communities…

Indirect interaction0106 biological sciencesInsectaInsect01 natural sciencesMultitrophic interactionParasitoidFood chainLaboratory of Entomologymedia_commonTrophic level0303 health sciencesbiologyEcologyMicrobiotaIndirect interactionsHost-Parasite Interactionfood and beveragesPE&RCParasitoid-host interactionPhenotypeDirect interactionVirusesDirect interactionsFood Chainanimal structuresmedia_common.quotation_subjectInsect-plant interactionZoology010603 evolutionary biologyHost-Parasite Interactions03 medical and health sciencesSymbiosisMultitrophic interactionsAnimalsSymbiosisEcology Evolution Behavior and Systematics030304 developmental biologyHerbivoreCommunityBacteriaViruseAnimalHost (biology)fungibiochemical phenomena metabolism and nutritionbiology.organism_classificationLaboratorium voor EntomologieInsect ScienceParasitoid-host interactionsInsect-plant interactionsbacteriaEPS
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Hyperparasitoids exploit herbivore-induced plant volatiles during host location to assess host quality and non-host identity

2019

Although consumers often rely on chemical information to optimize their foraging strategies, it is poorly understood how top carnivores above the third trophic level find resources in heterogeneous environments. Hyperparasitoids are a common group of organisms in the fourth trophic level that lay their eggs in or on the body of other parasitoid hosts. Such top carnivores use herbivore-induced plant volatiles (HIPVs) to find caterpillars containing parasitoid host larvae. Hyperparasitoids forage in complex environments where hosts of different quality may be present alongside non-host parasitoid species, each of which can develop in multiple herbivore species. Because both the identity of th…

0106 biological sciencesFood ChainSDG 16 - PeaceForagingWaspsContext (language use)010603 evolutionary biology01 natural sciencesMultitrophic interactionParasitoidPlant-Microbe-Animal Interactions–Original ResearchHost-Parasite InteractionsHyperparasitoid foraging behaviorFourth trophic level organismsMultitrophic interactionsFourth trophic level organismButterflieAnimalsNon-host parasitoid specieHerbivoryLaboratory of EntomologyEcology Evolution Behavior and SystematicsTrophic levelPieris brassicaeHerbivorebiologyHost (biology)EcologyAnimal010604 marine biology & hydrobiologySDG 16 - Peace Justice and Strong InstitutionsnationalHost-Parasite Interactionbiology.organism_classificationCotesia glomerataPE&RCLaboratorium voor Entomologie/dk/atira/pure/sustainabledevelopmentgoals/peace_justice_and_strong_institutionsJustice and Strong InstitutionsPlant-based food webLarvaEPSButterfliesNon-host parasitoid speciesOecologia
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The Ecology of Hyperparasitoids.

2021

Hyperparasitoids are some of the most diverse members of insect food webs. True hyperparasitoids parasitize the larvae of other parasitoids, reaching these larvae with their ovipositor through the herbivore that hosts the parasitoid larva. During pupation, primary parasitoids also may be attacked by pseudohyperparasitoids that lay their eggs on the parasitoid (pre)pupae. By attacking primary parasitoids, hyperparasitoids may affect herbivore population dynamics, and they have been identified as a major challenge in biological control. Over the past decades, research, especially on aphid- and caterpillar-associated hyperparasitoids, has revealed that hyperparasitoids challenge rules on nutri…

EntomologyFood ChainPopulationWaspsDuurzame gewasbeschermingBiologyInsect food webParasitoidHost-Parasite InteractionsMultitrophic interactionsAnimalsLaboratory of EntomologyeducationEcology Evolution Behavior and SystematicsTrophic leveleducation.field_of_studyHerbivoreAphidParasietenEcologyEcologyHost searching Hyperparasitoid Indirect interactions Insect food web Multitrophic interactions ParasitismIndirect interactionsHyperparasitoidbiology.organism_classificationPE&RCLaboratorium voor EntomologiePupaParasitismInsect ScienceLarvaHost searchingOvipositorEPSAnnual review of entomology
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Data from: Parasitic wasp-associated symbiont affects plant-mediated species interactions between herbivores

2018

Microbial mutualistic symbiosis is increasingly recognised as a hidden driving force in the ecology of plant–insect interactions. Although plant‐associated and herbivore‐associated symbionts clearly affect interactions between plants and herbivores, the effects of symbionts associated with higher trophic levels has been largely overlooked. At the third‐trophic level, parasitic wasps are a common group of insects that can inject symbiotic viruses (polydnaviruses) and venom into their herbivorous hosts to support parasitoid offspring development. Here, we show that such third‐trophic level symbionts act in combination with venom to affect plant‐mediated interactions by reducing colonisation o…

tritrophic interactionsfungifood and beveragesPieris brassicaeplant-insect interactionsPE&RCLaboratorium voor EntomologieLife sciencespolydnavirusesmedicine and health careCgBVherbivore colonizationMedicineBrassica oleraceaPlutella xylostellaEPSLaboratory of EntomologyCotesia glomerataparasitoid
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