Add to ORKGTranscription factor MYC2 is involved in priming for enhanced defense during rhizobacteria-induced systemic resistance in Arabidopsis thalian
Colonisation of plant roots by selected beneficial Trichoderma fungi or Pseudomonas bacteria can res...
• Selected soil-borne rhizobacteria can trigger an induced systemic resistance (ISR) that is effecti...
Pseudomonas fluorescens WCS417r bacteria and beta-aminobutyric acid can induce disease resistance in...
• Upon appropriate stimulation, plants can develop an enhanced capacity to express infection-induced...
Upon appropriate stimulation, plants can develop an enhanced capacity to express infection-induced c...
To defend themselves against pathogens, plants can activate a wide array of inducible defense mechan...
The Arabidopsis thaliana basic helix-loop-helix Leu zipper transcription factor (TF) MYC2/JIN1 diffe...
In Arabidopsis, basic helix–loop–helix transcription factors (TFs) MYC2, MYC3, and MYC4 are involved...
Plants are continually exposed to a vast array of pathogens, and generally succeed in defending them...
Upon treatment with a resistance-inducing agent, plants acquire an enhanced defensive capacity that ...
Beneficial microbes in the microbiome of plant roots improve plant health. Induced systemic resistan...
Pseudomonas fluorescens WCS417r bacteria and β-aminobutyric acid can induce disease resistance in Ar...
Selected soil-borne rhizobacteria can trigger an induced systemic resistance (ISR) that is effective...
As a master regulator of jasmonic acid (JA)–signaled plant immune responses, the basic helix-loop-he...
Plants are capable to enhance basal defense strategies against harmful organisms upon the perception...
Colonisation of plant roots by selected beneficial Trichoderma fungi or Pseudomonas bacteria can res...
• Selected soil-borne rhizobacteria can trigger an induced systemic resistance (ISR) that is effecti...
Pseudomonas fluorescens WCS417r bacteria and beta-aminobutyric acid can induce disease resistance in...
• Upon appropriate stimulation, plants can develop an enhanced capacity to express infection-induced...
Upon appropriate stimulation, plants can develop an enhanced capacity to express infection-induced c...
To defend themselves against pathogens, plants can activate a wide array of inducible defense mechan...
The Arabidopsis thaliana basic helix-loop-helix Leu zipper transcription factor (TF) MYC2/JIN1 diffe...
In Arabidopsis, basic helix–loop–helix transcription factors (TFs) MYC2, MYC3, and MYC4 are involved...
Plants are continually exposed to a vast array of pathogens, and generally succeed in defending them...
Upon treatment with a resistance-inducing agent, plants acquire an enhanced defensive capacity that ...
Beneficial microbes in the microbiome of plant roots improve plant health. Induced systemic resistan...
Pseudomonas fluorescens WCS417r bacteria and β-aminobutyric acid can induce disease resistance in Ar...
Selected soil-borne rhizobacteria can trigger an induced systemic resistance (ISR) that is effective...
As a master regulator of jasmonic acid (JA)–signaled plant immune responses, the basic helix-loop-he...
Plants are capable to enhance basal defense strategies against harmful organisms upon the perception...
Colonisation of plant roots by selected beneficial Trichoderma fungi or Pseudomonas bacteria can res...
• Selected soil-borne rhizobacteria can trigger an induced systemic resistance (ISR) that is effecti...
Pseudomonas fluorescens WCS417r bacteria and beta-aminobutyric acid can induce disease resistance in...