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Full Description
Decoding Plant-Environment-Microbiome Interactions in Stress-Resilient Agriculture provides foundational as well as future-facing insights into the emerging field of phytomicrobiome. Highlighting its unique advantages in addressing stressed soils and optimizing crop production this book specifically delves into the potential of phytomicrobiomes as natural bioresources to be optimized for improved interactions. Research has shown that the phytomicrobiome, comprising root-associated microbiota, plant growth-promoting rhizobacteria (PGPR), endophytes, phosphate-solubilizing microorganisms (PSMs), arbuscular mycorrhizal (AM) fungi, and actinomycetal populations, can enhance stress tolerance and ameliorate contaminated soils, enabling sustainable crop production under adverse conditions. However, the precise mechanisms through which the phytomicrobiome enhances stress resilience remain largely unexplored. Successful utilization of these natural bioresources in agriculture necessitates a comprehensive understanding of the intricate interplay between phytomicrobiomes and stressed plants, from fundamental processes to mechanistic insights. Presenting data and insights from globally recognized scientists and academicians with extensive research experience in microbiome-plant interactions Decoding Plant-Environment_Microbiome Interactions provides readers with the latest information and enables further advancements.
Contents
Section A: Phyto-Microbiome and Abiotic Stresses
1. Heavy Metal-Rhizobiome Interactions: Abundance, Composition, and Physiological Functions
2. Salt Stress-Soil Microbiome Interactions: Structure, Diversity and Physiological Functions
3. Drought Stress- Soil Microbial Communities
4. Low/High Temperature Effects on Microbial Growth and Associated Activities
5. Abiotic Stresses-Plant Interaction: Morpho-Anatomical Features and Physiological Functions
6. Genotoxic Effects of Different Types of Stresses on Microbiome and Plants
7. Phytochemicals under Abiotic Stress: Production and its Role in Plant Defence
8. Development of Stress Resilience among Rhizobiome: An Overview
9. Rhizosphere Engineering for Optimizing Bioremediation Potential: Recent Advances
Section B: Phytomicrobiomes as Biotools in Agriculture Resilience Under Stress Conditions
10. Phyto-microbiome: Ecology, Physiology and Emerging Trends in Microbial Application
11. The Plant Holobiont: Root Exudates, Rhizosphere Interactions and Biotechnological Applications
12. Plant Endophytic Microbiome: Importance in Crop Production
13. Importance of Melanin, Proline, and EPS in Stress Alleviation
14. Siderophilic Microbes and their Role in Abatement of Abiotic Stress
15. Plant Growth Promoting Rhizobacteria Mediated Remediation of Stressed Soils: Recent Developments
16. Phytoremediation: Basic Concepts and Real Field Success Story
17. Stress Tolerant Rhizosphere Microbiome-Plant Interactions: Importance in Crop Production
18 Role Of "Omics" in Designing Biofertilizers for a Better Plant Resilience Under Stressful Conditions
19. Bacterial Biosorbents: An Effective Metal Detoxification Microbial Strategy
20. Stress Tolerant Endophytes: Importance in Crop Yield Optimization
21. Performance of Food Crops in Problem Soils Influenced by Arbuscular Mycorrhizal Fungi
22. Actinomycetes: A Suitable Microbiological Agent for Bioremediation Techniques and Crop Production
23. Microbes Based Nanobioremediation of Inorganic Pollutants: Concepts and Application
Section C: Human Health Implications and Food Safety
24. Phytomicrobiome for Promoting Sustainable Agriculture and Food Security: Opportunities, Challenges, and Solutions
25. Human Health Risks and Regulatory Guidelines Associated with Consumption of Contaminated/Poor Quality Foods
26. Transference of knowledge from lab to land/field: Real Application of Phytomicrobiomes, Regulatory issues and Developmental constrains
