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Oryza sativa --- Oryza sativa --- Pest insects --- Pest insects --- Leaf eating insects --- Leaf eating insects --- Larvae --- Larvae --- identification. --- identification --- Damage --- Damage --- Insect control --- Insect control --- Scirpophaga incertulas --- Scirpophaga incertulas --- Chilo suppressalis --- Chilo suppressalis --- Sesamia inferens --- Sesamia inferens --- Scirpophaga innotata --- Chilo polychrysus --- Mineuse de la tige --- Scirpophaga innotata --- Chilo polychrysus --- Mineuse de la tige
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Although many insects successfully live in dangerous environments exposed to diverse communities of microbes, they are often exploited and killed by specialist pathogens. In the process of the co-evolution of insects and entomopathogenic microorganisms, they develop various adaptive systems that determine the sustainable existence of dynamic host–parasite interactions at both the organismic and population levels.
field production --- sustainable management --- pest control --- soil properties --- microbial community --- biological activity --- soil DNA analyses --- α-cypermethrin --- insects --- mycoses --- spontaneous bacterioses --- fungal–bacteria interactions --- Cordyceps militaris --- antimicrobial peptides --- Woronin body --- conidiation --- stress response --- appressorium formation --- virulence --- Metarhizium robertsii --- mycotoxins --- entomopathogen --- arthropods --- CYP450 --- gut-histology --- non-toxicity --- nematophagous fungi --- cross-kingdom interactions --- food-web cycling --- phytophagous nematodes --- soilborne fungal pathogens --- entomopathogenic fungi --- resistant triatomines --- biological control --- bassianolide --- beauvericin --- limpet --- dual gene expression --- genomics --- host defense --- immunity --- next generation sequencing --- transcriptome --- two-spotted field crickets --- immune defense --- immunocompetence --- pathogens --- sex --- Tenebrio molitor --- Buxus --- invasive pests --- alkaloids --- antimicrobial activity --- Geometridae --- Hypocreales --- mortality --- moth --- larva --- pupa --- Chilo suppressalis --- isolation --- identification --- pathogenicity --- n/a --- fungal-bacteria interactions
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Although many insects successfully live in dangerous environments exposed to diverse communities of microbes, they are often exploited and killed by specialist pathogens. In the process of the co-evolution of insects and entomopathogenic microorganisms, they develop various adaptive systems that determine the sustainable existence of dynamic host–parasite interactions at both the organismic and population levels.
Research & information: general --- field production --- sustainable management --- pest control --- soil properties --- microbial community --- biological activity --- soil DNA analyses --- α-cypermethrin --- insects --- mycoses --- spontaneous bacterioses --- fungal-bacteria interactions --- Cordyceps militaris --- antimicrobial peptides --- Woronin body --- conidiation --- stress response --- appressorium formation --- virulence --- Metarhizium robertsii --- mycotoxins --- entomopathogen --- arthropods --- CYP450 --- gut-histology --- non-toxicity --- nematophagous fungi --- cross-kingdom interactions --- food-web cycling --- phytophagous nematodes --- soilborne fungal pathogens --- entomopathogenic fungi --- resistant triatomines --- biological control --- bassianolide --- beauvericin --- limpet --- dual gene expression --- genomics --- host defense --- immunity --- next generation sequencing --- transcriptome --- two-spotted field crickets --- immune defense --- immunocompetence --- pathogens --- sex --- Tenebrio molitor --- Buxus --- invasive pests --- alkaloids --- antimicrobial activity --- Geometridae --- Hypocreales --- mortality --- moth --- larva --- pupa --- Chilo suppressalis --- isolation --- identification --- pathogenicity --- field production --- sustainable management --- pest control --- soil properties --- microbial community --- biological activity --- soil DNA analyses --- α-cypermethrin --- insects --- mycoses --- spontaneous bacterioses --- fungal-bacteria interactions --- Cordyceps militaris --- antimicrobial peptides --- Woronin body --- conidiation --- stress response --- appressorium formation --- virulence --- Metarhizium robertsii --- mycotoxins --- entomopathogen --- arthropods --- CYP450 --- gut-histology --- non-toxicity --- nematophagous fungi --- cross-kingdom interactions --- food-web cycling --- phytophagous nematodes --- soilborne fungal pathogens --- entomopathogenic fungi --- resistant triatomines --- biological control --- bassianolide --- beauvericin --- limpet --- dual gene expression --- genomics --- host defense --- immunity --- next generation sequencing --- transcriptome --- two-spotted field crickets --- immune defense --- immunocompetence --- pathogens --- sex --- Tenebrio molitor --- Buxus --- invasive pests --- alkaloids --- antimicrobial activity --- Geometridae --- Hypocreales --- mortality --- moth --- larva --- pupa --- Chilo suppressalis --- isolation --- identification --- pathogenicity
Choose an application
Although many insects successfully live in dangerous environments exposed to diverse communities of microbes, they are often exploited and killed by specialist pathogens. In the process of the co-evolution of insects and entomopathogenic microorganisms, they develop various adaptive systems that determine the sustainable existence of dynamic host–parasite interactions at both the organismic and population levels.
Research & information: general --- field production --- sustainable management --- pest control --- soil properties --- microbial community --- biological activity --- soil DNA analyses --- α-cypermethrin --- insects --- mycoses --- spontaneous bacterioses --- fungal–bacteria interactions --- Cordyceps militaris --- antimicrobial peptides --- Woronin body --- conidiation --- stress response --- appressorium formation --- virulence --- Metarhizium robertsii --- mycotoxins --- entomopathogen --- arthropods --- CYP450 --- gut-histology --- non-toxicity --- nematophagous fungi --- cross-kingdom interactions --- food-web cycling --- phytophagous nematodes --- soilborne fungal pathogens --- entomopathogenic fungi --- resistant triatomines --- biological control --- bassianolide --- beauvericin --- limpet --- dual gene expression --- genomics --- host defense --- immunity --- next generation sequencing --- transcriptome --- two-spotted field crickets --- immune defense --- immunocompetence --- pathogens --- sex --- Tenebrio molitor --- Buxus --- invasive pests --- alkaloids --- antimicrobial activity --- Geometridae --- Hypocreales --- mortality --- moth --- larva --- pupa --- Chilo suppressalis --- isolation --- identification --- pathogenicity --- n/a --- fungal-bacteria interactions
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Plants possess a rather complex and efficient immune system. During their evolutionary history, plants have developed various defense strategies in order to recognize and distinguishing between self and non-self, and face pathogens and animal pests. Accordingly, to study the plant innate immunity represents a new frontier in the plant pathology and crop protection fields. This book is structured in 6 sections. The first part introduces some basic and general aspects of the plant innate immunity and crop protection. Sections 2–5 focus on fungal and oomycete diseases (section 2), bacterial and phytoplasma diseases (section 3), virus diseases (section 4), and insect pests (section 5), with a number of case studies and plant–pathogen/pest interactions. The last section deals with plant disease detection and control. The book aims to highlight new trends in these relevant areas of plant sciences, providing a global perspective that is useful for future and innovative ideas.
Bakraee --- tomato gray mold --- Citrus sinensis --- CDPKs --- salicylic acid --- calmodulin --- glycerol-3-phosphate --- biotic stress responses --- negative regulator --- rice blast --- metabolomics --- hydroperoxide lyase --- Bromoviridae --- induced defense responses --- leaf transcriptome --- calcium signature --- “Candidatus Liberibacter” --- garden impatiens --- Chilo suppressalis --- plant defence --- plant–virus interactions --- spectral distribution of light --- Magnaporthe oryzae --- plant-virus interaction --- biological control --- ultrastructure --- pathogenicity --- disease resistance --- Potato virus Y --- symbiosis --- N-hydroxypipecolic acid --- VaHAESA --- priming --- plant–microbe interactions --- systemic and local movement --- immunity --- CaWRKY40b --- plant protection products --- hypersensitive response --- cellulose synthase --- herbivore-induced defense response --- Macrosiphum euphorbiae --- RTNLB --- ISR --- RNA silencing --- herbivore-induced plant defenses --- disease management --- sustainable crop protection --- WRKY networks --- Camellia sinensis --- RNA-Seq --- transcriptional modulation --- ETI --- pathogenesis related-protein 2 --- cell wall --- basal defense --- candidate disease resistance gene --- MTI --- grapevine --- defense-related signaling pathways --- wounding --- ethylene --- CMLs --- Prune dwarf virus --- Arabidopsis thaliana --- SAR signalling --- innate immunity --- agrochemicals --- OsGID1 --- Nilaparvata lugens --- tobacco --- tomato leaf mold --- Solanum lycopersicum --- downy mildew --- pipecolic acid --- chemical elicitors --- bismerthiazol --- pre-conditioning --- gibberellin --- “Candidatus Phytoplasma” --- dieback --- CaWRKY22 --- microbiota --- Sogatella furcifera --- PTI --- SAR --- Bacillus subtilis --- PRRs --- aphid resistance --- methyl salicylate --- regurgitant --- Myzus persicae --- Agrobacterium --- Ectropis obliqua --- Capsicum annuum --- polyphenol oxidase --- plant proteases --- plant immunity --- jasmonic acid --- calcium --- light dependent signalling --- Ralstonia solanacearum --- proteomics --- plant defense response --- Arabidopsis --- Lasiodiplodia theobromae --- azelaic acid --- citrus decline disease --- New Guinea impatiens --- replication process --- rice --- mango --- ?-3 fatty acid desaturase --- Ralstonia Solanacearum --- food security --- iTRAQ --- mitogen-activated protein kinase 4
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Plants possess a rather complex and efficient immune system. During their evolutionary history, plants have developed various defense strategies in order to recognize and distinguishing between self and non-self, and face pathogens and animal pests. Accordingly, to study the plant innate immunity represents a new frontier in the plant pathology and crop protection fields. This book is structured in 6 sections. The first part introduces some basic and general aspects of the plant innate immunity and crop protection. Sections 2–5 focus on fungal and oomycete diseases (section 2), bacterial and phytoplasma diseases (section 3), virus diseases (section 4), and insect pests (section 5), with a number of case studies and plant–pathogen/pest interactions. The last section deals with plant disease detection and control. The book aims to highlight new trends in these relevant areas of plant sciences, providing a global perspective that is useful for future and innovative ideas.
Bakraee --- tomato gray mold --- Citrus sinensis --- CDPKs --- salicylic acid --- calmodulin --- glycerol-3-phosphate --- biotic stress responses --- negative regulator --- rice blast --- metabolomics --- hydroperoxide lyase --- Bromoviridae --- induced defense responses --- leaf transcriptome --- calcium signature --- “Candidatus Liberibacter” --- garden impatiens --- Chilo suppressalis --- plant defence --- plant–virus interactions --- spectral distribution of light --- Magnaporthe oryzae --- plant-virus interaction --- biological control --- ultrastructure --- pathogenicity --- disease resistance --- Potato virus Y --- symbiosis --- N-hydroxypipecolic acid --- VaHAESA --- priming --- plant–microbe interactions --- systemic and local movement --- immunity --- CaWRKY40b --- plant protection products --- hypersensitive response --- cellulose synthase --- herbivore-induced defense response --- Macrosiphum euphorbiae --- RTNLB --- ISR --- RNA silencing --- herbivore-induced plant defenses --- disease management --- sustainable crop protection --- WRKY networks --- Camellia sinensis --- RNA-Seq --- transcriptional modulation --- ETI --- pathogenesis related-protein 2 --- cell wall --- basal defense --- candidate disease resistance gene --- MTI --- grapevine --- defense-related signaling pathways --- wounding --- ethylene --- CMLs --- Prune dwarf virus --- Arabidopsis thaliana --- SAR signalling --- innate immunity --- agrochemicals --- OsGID1 --- Nilaparvata lugens --- tobacco --- tomato leaf mold --- Solanum lycopersicum --- downy mildew --- pipecolic acid --- chemical elicitors --- bismerthiazol --- pre-conditioning --- gibberellin --- “Candidatus Phytoplasma” --- dieback --- CaWRKY22 --- microbiota --- Sogatella furcifera --- PTI --- SAR --- Bacillus subtilis --- PRRs --- aphid resistance --- methyl salicylate --- regurgitant --- Myzus persicae --- Agrobacterium --- Ectropis obliqua --- Capsicum annuum --- polyphenol oxidase --- plant proteases --- plant immunity --- jasmonic acid --- calcium --- light dependent signalling --- Ralstonia solanacearum --- proteomics --- plant defense response --- Arabidopsis --- Lasiodiplodia theobromae --- azelaic acid --- citrus decline disease --- New Guinea impatiens --- replication process --- rice --- mango --- ?-3 fatty acid desaturase --- Ralstonia Solanacearum --- food security --- iTRAQ --- mitogen-activated protein kinase 4
Choose an application
Plants possess a rather complex and efficient immune system. During their evolutionary history, plants have developed various defense strategies in order to recognize and distinguishing between self and non-self, and face pathogens and animal pests. Accordingly, to study the plant innate immunity represents a new frontier in the plant pathology and crop protection fields. This book is structured in 6 sections. The first part introduces some basic and general aspects of the plant innate immunity and crop protection. Sections 2–5 focus on fungal and oomycete diseases (section 2), bacterial and phytoplasma diseases (section 3), virus diseases (section 4), and insect pests (section 5), with a number of case studies and plant–pathogen/pest interactions. The last section deals with plant disease detection and control. The book aims to highlight new trends in these relevant areas of plant sciences, providing a global perspective that is useful for future and innovative ideas.
Bakraee --- tomato gray mold --- Citrus sinensis --- CDPKs --- salicylic acid --- calmodulin --- glycerol-3-phosphate --- biotic stress responses --- negative regulator --- rice blast --- metabolomics --- hydroperoxide lyase --- Bromoviridae --- induced defense responses --- leaf transcriptome --- calcium signature --- “Candidatus Liberibacter” --- garden impatiens --- Chilo suppressalis --- plant defence --- plant–virus interactions --- spectral distribution of light --- Magnaporthe oryzae --- plant-virus interaction --- biological control --- ultrastructure --- pathogenicity --- disease resistance --- Potato virus Y --- symbiosis --- N-hydroxypipecolic acid --- VaHAESA --- priming --- plant–microbe interactions --- systemic and local movement --- immunity --- CaWRKY40b --- plant protection products --- hypersensitive response --- cellulose synthase --- herbivore-induced defense response --- Macrosiphum euphorbiae --- RTNLB --- ISR --- RNA silencing --- herbivore-induced plant defenses --- disease management --- sustainable crop protection --- WRKY networks --- Camellia sinensis --- RNA-Seq --- transcriptional modulation --- ETI --- pathogenesis related-protein 2 --- cell wall --- basal defense --- candidate disease resistance gene --- MTI --- grapevine --- defense-related signaling pathways --- wounding --- ethylene --- CMLs --- Prune dwarf virus --- Arabidopsis thaliana --- SAR signalling --- innate immunity --- agrochemicals --- OsGID1 --- Nilaparvata lugens --- tobacco --- tomato leaf mold --- Solanum lycopersicum --- downy mildew --- pipecolic acid --- chemical elicitors --- bismerthiazol --- pre-conditioning --- gibberellin --- “Candidatus Phytoplasma” --- dieback --- CaWRKY22 --- microbiota --- Sogatella furcifera --- PTI --- SAR --- Bacillus subtilis --- PRRs --- aphid resistance --- methyl salicylate --- regurgitant --- Myzus persicae --- Agrobacterium --- Ectropis obliqua --- Capsicum annuum --- polyphenol oxidase --- plant proteases --- plant immunity --- jasmonic acid --- calcium --- light dependent signalling --- Ralstonia solanacearum --- proteomics --- plant defense response --- Arabidopsis --- Lasiodiplodia theobromae --- azelaic acid --- citrus decline disease --- New Guinea impatiens --- replication process --- rice --- mango --- ?-3 fatty acid desaturase --- Ralstonia Solanacearum --- food security --- iTRAQ --- mitogen-activated protein kinase 4 --- Bakraee --- tomato gray mold --- Citrus sinensis --- CDPKs --- salicylic acid --- calmodulin --- glycerol-3-phosphate --- biotic stress responses --- negative regulator --- rice blast --- metabolomics --- hydroperoxide lyase --- Bromoviridae --- induced defense responses --- leaf transcriptome --- calcium signature --- “Candidatus Liberibacter” --- garden impatiens --- Chilo suppressalis --- plant defence --- plant–virus interactions --- spectral distribution of light --- Magnaporthe oryzae --- plant-virus interaction --- biological control --- ultrastructure --- pathogenicity --- disease resistance --- Potato virus Y --- symbiosis --- N-hydroxypipecolic acid --- VaHAESA --- priming --- plant–microbe interactions --- systemic and local movement --- immunity --- CaWRKY40b --- plant protection products --- hypersensitive response --- cellulose synthase --- herbivore-induced defense response --- Macrosiphum euphorbiae --- RTNLB --- ISR --- RNA silencing --- herbivore-induced plant defenses --- disease management --- sustainable crop protection --- WRKY networks --- Camellia sinensis --- RNA-Seq --- transcriptional modulation --- ETI --- pathogenesis related-protein 2 --- cell wall --- basal defense --- candidate disease resistance gene --- MTI --- grapevine --- defense-related signaling pathways --- wounding --- ethylene --- CMLs --- Prune dwarf virus --- Arabidopsis thaliana --- SAR signalling --- innate immunity --- agrochemicals --- OsGID1 --- Nilaparvata lugens --- tobacco --- tomato leaf mold --- Solanum lycopersicum --- downy mildew --- pipecolic acid --- chemical elicitors --- bismerthiazol --- pre-conditioning --- gibberellin --- “Candidatus Phytoplasma” --- dieback --- CaWRKY22 --- microbiota --- Sogatella furcifera --- PTI --- SAR --- Bacillus subtilis --- PRRs --- aphid resistance --- methyl salicylate --- regurgitant --- Myzus persicae --- Agrobacterium --- Ectropis obliqua --- Capsicum annuum --- polyphenol oxidase --- plant proteases --- plant immunity --- jasmonic acid --- calcium --- light dependent signalling --- Ralstonia solanacearum --- proteomics --- plant defense response --- Arabidopsis --- Lasiodiplodia theobromae --- azelaic acid --- citrus decline disease --- New Guinea impatiens --- replication process --- rice --- mango --- ?-3 fatty acid desaturase --- Ralstonia Solanacearum --- food security --- iTRAQ --- mitogen-activated protein kinase 4
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