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Advances in botanical research. Vol. 51, Plant innate immunity /
Plant innate immunity is a collective term to describe a complex of interconnected mechanisms that plants use to withstand potential pathogens and herbivores. The last decade has seen a rapid advance in our understanding of the induction, signal-transduction and expression of resistance responses to...
| Clasificación: | Libro Electrónico |
|---|---|
| Otros Autores: | , |
| Formato: | Electrónico eBook |
| Idioma: | Inglés |
| Publicado: |
London :
Academic,
2009.
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| Temas: | |
| Acceso en línea: | Texto completo Texto completo |
Tabla de Contenidos:
- Front Cover?; Advances in Botanical Research; Copyright Page; Contents; Contributors to Volume 51; Preface: Plant Innate Immunity; Contents of Volumes 35-50; Chapter 1: PAMP-Triggered Basal Immunity in Plants; I. The Concept of Plant Immunity; II. Signals Mediating the Activation of Plant Defense Responses; A. Pathogen-Associated Molecular Patterns; B. Damage-Associated Molecular Patterns; C. Pathogen-Derived Toxins as Triggers of Plant Immunity; III. Receptors Mediating Pattern Recognition in Plant Immunity; IV. Signal Transduction in PTI.
- v. Suppression of PTI-A Major Virulence Strategy of Phytopathogenic BacteriaVI. Concluding Remarks; Acknowledgments; References; Chapter 2: Plant Pathogens as Suppressors of Host Defense; I. Introduction; II. Suppressors Produced by Fungal and Oomycete Pathogens; A. Suppressors Comprise a Wide Group of Metabolites; B. Race-Specific Elicitors Turn Out to Suppress Defenses; C. Concluding Remarks; III. Suppressors Produced by Bacterial Pathogens; A. Bacterial Evolution to Overcome Plant Resistance; B. Bacterial Suppression of PTI.
- 1. Calcium signaling suppression by extracellular polysaccharides (EPS)2. Coronatine toxin suppression of stomatal closure; C. Type III Protein Secreted Effectors are Used to Suppress PTI; D. Multifunctional Effectors; 1. avrPto; 2. avrPtoB (hopAB2); 3. avrRpt2; 4. xopD; E. RNA and RNA-Binding Protein Targeting; 1. hopU1 (hopPtoS2); 2. hopT1-1; F. Attack of Negative Regulators of PTI; 1. avrB; 2. avrRpm1; G. Targeting Hormone Signaling?; 1. hopAN (avrE1/wtsE/dspA/dspE); 2. hopAM1 (avrPpiB); H. Disruption of Vesicle Trafficking; 1. hopM1 (hopPtoM); I. Targeting MAP Kinase Signaling; 1. HopAI1.
- J. Other Effectors Involved in PTI Suppression for Which Targets are Unknown1. avrRps4; 2. hopAO1 (hopPtoD2); K. Other Effectors Involved in PTI Suppression, but Lacking Functional Information; L. Other Potential Mechanisms-Type VI Secretion; M. Complexity and Evolution of PTI Suppression by Bacterial Pathogens; IV. RNA Silencing, the Plant's Innate Immune System Against Viruses; A. The Discovery of RNA Silencing as the Plant's Innate Immune System Against Viruses; B. Current Views of RNA Silencing as Antiviral Mechanism in; 1. The siRNA pathway; 2. The miRNA pathway.
- C. Viral Suppressors of RNA SilencingD. Possible Interactions Between Plant Viruses and the miRNA Pathway; E. Is Antiviral RNAi Restricted to Plants and Insects?; Acknowledgments; References; Chapter 3: From Nonhost Resistance to Lesion-Mimic Mutants: Useful for Studies of Defense Signaling; I. Introduction; II. Defense Induction Mediated by PAMPs and Effectors; III. Signaling Downstream of Pathogen Detection; A. The SA-Signaling Pathway; IV. Commonalities in the Defense Response of Host and Nonhost Resistance; A. Penetration Resistance of Arabidopsis; B. Nonhost Resistance to Bacteria.