Add to ORKGTo protect themselves from disease, plants have evolved sophisticated defense mechanisms in which the signal molecules salicylic acid (SA), jasmonic acid (JA) and ethylene (ET) often play crucial role (Pieterse and Van Loon, 1999). Elucidation of signaling pathways controlling disease resistance is a major objective in research on plant–pathogen interactions. The capacity of a plant to develop a broad-spectrum, systemic acquired resistance (SAR) after primary infection with a necrotizing pathogen is well known and its signal transduction pathway extensively studied (Durrant and Dong, 2004)
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...
During the co-evolutionary arms race between plants and pathogens, plants evolved a sophisticated de...
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...
To protect themselves from disease, plants have evolved sophisticated defense mechanisms in which th...
To protect themselves from disease, plants have evolved sophisticated defense mechanisms in which t...
To protect themselves from disease, plants have evolved sophisticated defence mechanisms in which th...
To protect themselves from disease, plants have evolved sophisticated inducible defense mechanisms i...
To protect themselves from disease, plants have evolved sophisticated defence mechanisms in which th...
Some of non-pathogenic rhizosphere bacteria reduce disease by activating a resistance mechanism in t...
Selected strains of rhizosphere bacteria reduce disease by activating a resistance mechanism in the ...
Selected strains of rhizosphere bacteria reduce disease by activating a resistance mechanism in the ...
Plants develop an enhanced defensive capacity against a broad spectrum of plant pathogens after colo...
Plants have the ability to acquire an enhanced level of resistance to pathogen attack after being ex...
Selected strains of rhizosphere bacteria have been shown to reduce disease by activating a resistan...
Arabidopsis plants of which the roots are colonized by specific strains of non-pathogenic fluoresce...
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...
During the co-evolutionary arms race between plants and pathogens, plants evolved a sophisticated de...
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...
To protect themselves from disease, plants have evolved sophisticated defense mechanisms in which th...
To protect themselves from disease, plants have evolved sophisticated defense mechanisms in which t...
To protect themselves from disease, plants have evolved sophisticated defence mechanisms in which th...
To protect themselves from disease, plants have evolved sophisticated inducible defense mechanisms i...
To protect themselves from disease, plants have evolved sophisticated defence mechanisms in which th...
Some of non-pathogenic rhizosphere bacteria reduce disease by activating a resistance mechanism in t...
Selected strains of rhizosphere bacteria reduce disease by activating a resistance mechanism in the ...
Selected strains of rhizosphere bacteria reduce disease by activating a resistance mechanism in the ...
Plants develop an enhanced defensive capacity against a broad spectrum of plant pathogens after colo...
Plants have the ability to acquire an enhanced level of resistance to pathogen attack after being ex...
Selected strains of rhizosphere bacteria have been shown to reduce disease by activating a resistan...
Arabidopsis plants of which the roots are colonized by specific strains of non-pathogenic fluoresce...
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...
During the co-evolutionary arms race between plants and pathogens, plants evolved a sophisticated de...
Rhizobacteria are present in large numbers on the root surface, where plant exudates and lysates pro...