Claim · model-written summary
Plant growth-promoting rhizobacteria can suppress plant disease through antagonism with soilborne pathogens.
- Taxon
- plante0
- Interactor
- Plant growth-promoting rhizobacteriae0biocontrol_agent
- Second interactor
- soilborne pathogense0pathogen
- Outcome
- suppress diseasese0
- Qualifier
- antagonisme0
Not reportedMaterialGeneCompoundOrgan / stageTreatmentComparatorSettingDirectionValue
Verbatim
e0“Plant growth-promoting rhizobacteria can suppress diseases through antagonism between the bacteria and soilborne pathogens, as well as by inducing a systemic resistance in the plant against both root and foliar pathogens.”
Title
Mechanisms of PGPR-induced resistance against pathogens
L.C. van Loon; Peter A. H. M. Bakker; Corné M. J. Pieterse 1997
Other claims from this paper (17)
- Mechanism Plant growth-promoting rhizobacteria can suppress disease by inducing systemic resistance against root and foliar pathogens.
- Intervention effect Pseudomonas strains induced systemic resistance in carnation, with enhanced defense after challenge inoculation.
- Intervention effect Pseudomonas strains induced systemic resistance in cucumber, with enhanced defense after challenge inoculation.
- Intervention effect Pseudomonas strains induced systemic resistance in radish, with enhanced defense after challenge inoculation.
- Intervention effect Pseudomonas strains induced systemic resistance in tobacco, with enhanced defense after challenge inoculation.
- Intervention effect Pseudomonas strains induced systemic resistance in Arabidopsis, with enhanced defense after challenge inoculation.
- Mechanism In carnation, the bacterial O-antigeni c side chain acts as a determinant of induced resistance.
- Mechanism In radish, the bacterial O-antigeni c side chain acts as a determinant of induced resistance.
- Mechanism In Arabidopsis, the bacterial O-antigeni c side chain acts as a determinant of induced resistance.
- Mechanism Siderophores are implicated in resistance induction in tobacco.
- Mechanism Siderophores are implicated in resistance induction in Arabidopsis.
- Mechanism Fluorebactin may explain salicylic-acid-associated resistance induction in radish.
- Mechanism SA is not required for resistance induced by most rhizobacterial strains.
- Association Rhizobacteria-induced resistance is not associated with accumulation of pathogenesis-related proteins.
- Observation Arabidopsis transformants unable to accumulate SA fully expressed rhizobacteria-induced resistance.
- Observation Some bacterial strains are equally effective at inducing resistance in different plant species.
- Mechanism Other bacterial strains show plant-specific resistance induction, suggesting root-surface recognition.