Xanthomonas campestris lipooligosaccharides trigger innate immunity and oxidative burst in Arabidopsis

Immunology and Microbiology

• Adaptive Immune System 33%
• Arabidopsis 100%
• Arabidopsis thaliana 33%
• Bacterial Pathogenesis 33%
• Cell Surface 33%
• Gene Expression 33%
• Gram-Negative Bacteria 33%
• Host Resistance 33%
• Immune System 33%
• Infectious Agent 66%
• Innate Immune System 100%
• Liquid Chromatography Mass Spectrometry 33%
• Microorganism 33%
• Pathogen-Associated Molecular Pattern 100%
• Proteomics 33%
• Respiratory Burst 100%
• Salicylic Acid 33%
• Signal Transduction 66%
• Tandem Mass Spectrometry 33%
• Transcriptomics 33%
• Xanthomonas campestris 100%

Keyphrases

• Acid Activation 14%
• Adaptive Immunity 14%
• Affinity Capture 14%
• Arabidopsis 100%
• Arabidopsis Thaliana 14%
• Bacterial Pathogenesis 14%
• Campestris 14%
• Capture Strategy 14%
• Cell Surface 14%
• Conserved Structures 14%
• Defense Signaling Pathways 14%
• Diverse Roles 14%
• Gene Expression Studies 14%
• Gene Network 14%
• Gram-negative Bacteria 14%
• Host Defense 14%
• Host Organisms 14%
• Innate Immune Response 14%
• Innate Immunity 100%
• Jawed Vertebrates 14%
• Large Set 14%
• LC-MS Analysis 14%
• Lipooligosaccharide 100%
• Lipopolysaccharide 14%
• Major Components 14%
• Microorganisms 14%
• Oxidative Burst 100%
• Pathogen-associated Molecular Patterns 42%
• Plant Immune Responses 14%
• Plant Immunity 14%
• Protein-ligand 14%
• Proteomic Approach 14%
• Reactive Oxygen Species 14%
• Salicylic Acid 14%
• Signal Transduction Pathway 42%
• Transcriptomic Approaches 14%
• Xanthomonas Campestris 100%