Readings Newsletter
Become a Readings Member to make your shopping experience even easier.
Sign in or sign up for free!
You’re not far away from qualifying for FREE standard shipping within Australia
You’ve qualified for FREE standard shipping within Australia
The cart is loading…

In the face of escalating climate challenges and increasing biotic pressures, modern agriculture demands innovative, sustainable, and eco-friendly solutions. Microbial Synergies: Advanced Strategies for Plant Stress Alleviation delves into the transformative potential of microbial consortia and microbiome-based technologies in fortifying plants against biotic stresses and boosting crop resilience.
This comprehensive volume brings together cutting-edge research and practical insights on how microbial partnerships ranging from arbuscular mycorrhizal fungi (AMF) to diazotrophic bacteria and plant growth-promoting rhizobacteria (PGPR) can be harnessed to manage plant diseases, stimulate defense systems, and enhance nutrient acquisition. Through advanced strategies such as rhizosphere engineering, microbiome modulation, and nanobiotechnology, this book highlights the pivotal role of microbes in promoting plant health and productivity.
Key chapters explore microbial elicitors of plant immunity, mechanisms of pathogen suppression, the revitalization of suppressive soils, and the integration of microbial nanofertilizers for sustainable agriculture. Each chapter reflects the synergy between scientific innovation and practical application, making it a valuable resource for researchers, students, agricultural professionals, and policymakers.
Key highlights of the book
Explores the role of microbial consortia in managing plant biotic stresses and promoting growth. Highlights innovative microbiome engineering and rhizosphere modulation techniques. Integrates microbial nanotechnology for sustainable agriculture and environmental safety. Offers mechanistic insights and real-world applications for resilient crop systems.
$9.00 standard shipping within Australia
FREE standard shipping within Australia for orders over $100.00
Express & International shipping calculated at checkout
Stock availability can be subject to change without notice. We recommend calling the shop or contacting our online team to check availability of low stock items. Please see our Shopping Online page for more details.
In the face of escalating climate challenges and increasing biotic pressures, modern agriculture demands innovative, sustainable, and eco-friendly solutions. Microbial Synergies: Advanced Strategies for Plant Stress Alleviation delves into the transformative potential of microbial consortia and microbiome-based technologies in fortifying plants against biotic stresses and boosting crop resilience.
This comprehensive volume brings together cutting-edge research and practical insights on how microbial partnerships ranging from arbuscular mycorrhizal fungi (AMF) to diazotrophic bacteria and plant growth-promoting rhizobacteria (PGPR) can be harnessed to manage plant diseases, stimulate defense systems, and enhance nutrient acquisition. Through advanced strategies such as rhizosphere engineering, microbiome modulation, and nanobiotechnology, this book highlights the pivotal role of microbes in promoting plant health and productivity.
Key chapters explore microbial elicitors of plant immunity, mechanisms of pathogen suppression, the revitalization of suppressive soils, and the integration of microbial nanofertilizers for sustainable agriculture. Each chapter reflects the synergy between scientific innovation and practical application, making it a valuable resource for researchers, students, agricultural professionals, and policymakers.
Key highlights of the book
Explores the role of microbial consortia in managing plant biotic stresses and promoting growth. Highlights innovative microbiome engineering and rhizosphere modulation techniques. Integrates microbial nanotechnology for sustainable agriculture and environmental safety. Offers mechanistic insights and real-world applications for resilient crop systems.