systemic acquired resistance (SAR)
First-pass extracted concept
systemic acquired resistance
Aliases
SAR
Evidence Snippets
Supporting Sources
Linked Claims
Morning and midday inoculations produce higher salicylic acid accumulation, faster pathogenesis-related gene expression, and a more pronounced hypersensitive response than evening or night inoculations.
Morning and midday inoculations result in higher salicylic acid accumulation, faster expression of pathogenesis-related genes, and a more pronounced hypersensitive response than inoculations in the evening or at night.
Phytochrome photoperception is important during systemic rather than local resistance induction.
Our findings highlight the importance of phytochrome photoperception during systemic rather than local resistance induction.
Induction of systemic acquired resistance and salicylic-acid-dependent systemic defense reactions is compromised in phyAphyB mutants.
Induction of SAR and salicylic-acid-dependent systemic defense reactions, however, are compromised in phyAphyB mutants.
The increased defense capability after day inoculations is attributed to the availability of a prolonged light period during early plant-pathogen interaction rather than to circadian rhythm.
Rather than to the plants' circadian rhythm, this increased plant defense capability upon day inoculations is attributable to the availability of a prolonged light period during the early plant-pathogen interaction.
Phytochrome regulation of systemic acquired resistance involves FLAVIN-DEPENDENT MONOOXYGENASE1.
Phytochrome regulation of SAR involves the essential SAR component FLAVIN-DEPENDENT MONOOXYGENASE1.
The blue-light receptor mutants cry1cry2 and phot1phot2 are capable of establishing a full systemic acquired resistance response.
the blue-light receptor mutants cry1cry2 and phot1phot2 are both capable of establishing a full systemic acquired resistance (SAR) response
In Arabidopsis challenged with Pseudomonas syringae, plant defense responses and disease resistance depend on the time of day of pathogen contact.
Within a fixed light/dark cycle, plant defense responses and disease resistance significantly depend on the time of day when pathogen contact takes place.