Switching on Plant Innate Immunity Signaling Systems: Bioengineering and Molecular Manipulation of Pamp-Pimp-Prr Signaling Complex

ISBN-13: 9783319261164 / Angielski / Twarda / 2016 / 358 str.

P. Vidhyasekaran

Opis

This book presents the ways and means to switch on plant immune signaling systems using PAMP-PIMP-PRR signaling complex for crop disease management. It also describes bioengineering approaches to develop transgenic plants expressing enhanced disease resistance using genes encoding PAMPs, PRRs and transcription factors and genes involved in generation of PIMPs/HAMPs. It also discusses recent commercial development of PAMP products to switch on plant innate immunity for crop disease management. These unique approaches have been described with more than 100 figures and illustrations and these would make this book attractive for researchers and students to buy this book.
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Spis treści

1.   Introduction

1.1    Plant Innate Immunity is a Sleeping Giant to Fight against Pathogens

1.2   Potential Signals to Switch on Plant Immune System 

1.3   Pathogens Possess Weapons to Switch-off Plant Immune Systems

1.4   Bioengineering and Molecular Manipulation Technologies to Switch on the       Sleeping Quiescent           Plant Immune System to Win the War against Pathogens

1.5   Switching on Plant Innate Immunity Using PAMP-PIMP-PRR-Transcription Factor is the Most Potential         Biotechnological Approach for Management of Crop Diseases

2.    Role of Plant Immune Signals and Signaling Systems in Plant Pathogenesis 

2.1   Susceptibility and Disease Resistance are Two Sides of the Same Coin Modulated by Plant Immune &

nbsp;           System Signals and Signaling Systems

2.2   Signals and Signaling Systems Involved in Triggering Immune Responses

2.3   Reduced Activity of PAMPs May Facilitate the Virulent Pathogens to Cause Disease 

2.4   Pathogen-Secreted Effectors Suppress PAMP-Triggered Plant Immune Responses 

2.5   Host Plants May Manipulate the Defense Signaling Systems to Suppress the Disease Development 

2.6   Specificity of Plant Hormone Signaling Systems in Conferring Resistance Against Various Pathogens 

2.7   Plant Hormone Signaling Systems May Also Induce Susceptibility Against Pathogens

2.8   Pathogens

May Hijack Specific Signaling Pathways to Cause Disease

2.9   Pathogens May Suppress Specific Signaling System to Promote Disease Development 

3.    Switching on Plant Immune Signaling Systems Using Microbe-Associated Molecular Patterns 

3.1   PAMP-Triggered Immunity

3.2   Harpin PAMPs as Molecular Tools to Manipulate PAMP-Triggered Immunity

3.3   Engineering Harpin Gene to Develop Disease Resistant Plants 

3.4   Molecular Manipulation of Plant Innate Immune Signaling Systems Using Flagellin 

3.5   Molecular Manipulation of Plant Immune Systems Using the PAMP Elicitins

3.6   Manipulation of Plant Immune System Using Chitosan

3.7   Manipulation of Plant Immune System Using Cerebrosides

3.8   Manipulation of Plant Immune System Using CfHNNI1 Elicitor

3.9   Bioengineering FsphDNase

Elicitor gene to Trigger Plant Immune Responses against Wide Range of             Pathogens

3.10  Engineering the Elicitor-encoding pemG1 Gene for Crop Disease Management

3.11  Manipulation of Plant Immune System Using the MAMP Rhamnolipids 

3.12  Manipulation of Plant Immune System Using the Proteinaceous Elicitor Sm1 Derived from Trichoderma         virens

3.13  Manipulation of Plant Immune Responses Using Yeast-Derived Elicitors\

4.    Switching on Plant Immune Signaling Systems Using Pathogen-Induced Molecular Patterns/Host-      

        Associated Molecular Patterns

4.1   Pathogen-Induced Molecular Patterns (PIMPs)/Host-associated Molecular Patterns (HAMPs) 

4.2   Oligogalacturonides Switch on Plant Innate Immunity 

4.3   OGAs with Different Degrees of Polymerization Differ in Triggering Defense Responses

4.4   Degree of Methyl Esterification of OGAs Modulates the Elicitor Activity of OGAs

4.5   Ability of OGAs to Trigger Defense Responses May Depend on their Level of Acetylation

4.6   Engineering Pectin Methyl Esterase Genes to Develop Disease Resistant Plants

4.7   Bioengineering Pectin Methyl Esterase Inhibitor Protein for Plant Disease Management

4.8   Engineering PG Gene to Develop Disease Resistant Plants 

4.9   Engineering PGIP gene to Develop Disease-Resistant Plants

4.10  Manipulation of Oligogalacturonides by Salicylic Acid (SA) Analog to Induce Resistance against             Pathogens 

4.11  Switching on Plant Imm

une Signaling Systems Using Plant Elicitor Peptides (Peps) for Disease  
4.12  Switching on Plant Immune Signaling Systems Using Systemin for Disease Management

5.    Switching on Plant Immune Signaling Systems Using Pattern Recognition Receptor Complex

5.1   Pattern Recognition Receptors (PRRs) 

5.2   Importance of PRRs in Triggering Defense Responses Against Pathogens

5.3   Engineering PRRs for Disease Management

5.4   PRR-Interacting Protein Complexes 

5.5   Engineering PRR-Interacting Protein Complexes for Crop Disease Management

6.    Molecular Manipulation of Transcription Factors, the Master Regulators of PAMP-Triggered Signaling         Systems 

6.1   Transcription Factor

s as ‘Master Switches’ Regulating Expression of Defense Genes in Plant Immune         Signaling Systems

6.2   PAMPs and PIMPs/HAMPs Trigger Expression of Transcription Factors

6.3   Role of Transcription Factors in Regulation of Ca2+ Signaling System

6.4   ROS-Regulated Expression of Transcription Factors

6.5   MAPKs-Modulated Phosphorylation of Transcription Factors in Activation of Plant Immune Responses

6.6   Transcription Factors Regulating Salicylate Signaling in Plant Innate Immune System

6.7   Transcription Factors Regulating Jasmonate Signaling System in Plant Innate Immunity

6.8   Transcription Factors Regulating Ethylene Signaling System in Plant Innate Immunity

6.9   Transcription Factors May Trigger “Priming” of Defense Responses

6.10  Bioengineering WRKY Transcription Factors for Rice Disease Management 

6.11  Bioengineering WRKY Transcription Factors for Wheat Disease Management 

6.12  Bioengineering WRKY Transcription Factors for Tobacco Disease Management

6.13  Bioengineering WRKY Transcription Factors for Management of Grapevine Diseases6.14  Search for Arabidopsis Transcription Factor Genes for Using as Tools for Engineering Disease-             Resistant Plants 

6.15  Manipulation of OsWRKY45 Transcription Factor–dependent Priming Process Using Benzothiadiazole             Compounds for Rice disease Management

6.16  Manipulation of Priming of WRKY Transcription Factors Using BABA for Crop Disease Management

6.17  Manipulation of WRKY Gene Expression Using Ergosterol for Disease Ma

nagement

6.18  Manipulation of MYB Transcription Factors for Disease Management

6.19  Molecular Manipulation of MYC2 Transcription Factor Using Rhizobacteria to Trigger Priming and ISR         for Disease Management 

6.20  Molecular Manipulation of bZIP Transcription Factors for Crop Disease Management

6.21  Manipulation of EREBP Transcription Factors for Crop Disease Management 

6.22  Manipulation of NAC Transcription Factors for Crop Disease Management 
6.23  Engineering NtWIF Transcription Factor Gene for Crop Disease Management 

6.24  Engineering AT-Hook Motif-Containing Transcription Factor Gene (CaATL1) for Crop Disease Management

Blurb

This book describes various bioengineering and molecular manipulation technologies employed to trigger defense responses and manage crop diseases. Plant innate immune system is a sleeping giant armed with an armory of deadly weapons (defense genes) to fight and destroy the invading viral, bacterial, oomycete, and fungal pathogens. When awakened by specific alarm signals, the plant immune system can activate transcription of hundreds of defense genes and confer resistance against wide range of pathogens, specifically against viral and bacterial pathogens against which effective chemical control is still not available. Chemical control of fungal and oomycete pathogens is widely practiced, but development of resistance to the modern fungicides in these pathogen populations restricts the use of these chemicals in management of these diseases. Breeding varieties with built in resistance is ideal but new races of pathogens appear frequently and the resistance often breaks down. Breeding for quantitative resistance is useful, but it is difficult to achieve. Transgenic plants developed by engineering disease resistance genes show resistance only against specific races of pathogens. Recent cutting edge studies on molecular biology of plant innate immunity have revealed the potential of the quiescent plant innate immunity for crop disease management, Enhancing disease resistance by switching on the plant immune system through modern genetic engineering and molecular manipulation technologies would be durable and publicly acceptable.