Unravelling Plant-Microbe Synergy focuses on agriculturally important microorganisms (AIM’s) that are indigenous to soil and roots of the plant. These microbes contributing to nutrient balance, growth regulators, suppressing pathogens, alleviate stress response, orchestrating immune response and improving crop performance as they are offering sustainable and alternative solutions to the use of chemicals in agriculture. As plant microbe synergy is an enthralling subject, is multidisciplinary in nature, and concerns scientists involved in applied, and environmental microbiology and plant health and plant protection, Unravelling Plant-Microbe Synergy is an ideal resource that emphasizes the current trends of, and probable future of, microbes mediated amelioration of abiotic and biotic stress, agriculture sustainability, induced systemic tolerance and plant health protection. Unravelling Plant-Microbe Synergy discloses the microbial interaction for stress management and provides a better understanding to know the recent mechanisms to cope these environmental stresses. Unravelling Plant-Microbe Synergy bridges the gap in recent advances in the microbes interaction and rhizosphere engineering. Emphasizes the plant microbes interactions, induced systemic tolerance, stress responsive genes and diversity of microorganisms Illustrates the current impact of climate change on plant productivity along with mitigation strategies Provides a two-way interactive approach to both plants and microbes, and includes multi-omics approaches

This book presents state-of-the-art research on the many facets of the plant microbiome, including diversity, ecology, physiology and genomics, as well as molecular mechanisms of plant-microbe interactions. Topics considered include the importance of microbial secondary metabolites in stimulating plant growth, induced systemic resistance, tolerance to abiotic stress, and biological control of plant pathogens. The respective contributions show how microbes help plants to cope with abiotic stresses, and represent significant progress toward understanding the complex regulatory networks critical to host-microbe interaction and plant adaptation in extreme environments. New insights into the mechanisms of microbial actions in inducing plant stress tolerance open new doors for improving the efficacy of microbial strategies, and could produce new ways of economically increasing crop yields without harming the environment. As such, this book offers an essential resource for students and researchers with an interest in plant-microbe interaction, as well as several possibilities for employing the plant microbiome in the enhancement of crop productivity under future climate change scenarios.

The microbial ecosystem provides an indigenous system for improving plant growth, health and stress resilience. Plant microbiota, including isolated microbial communities, have been studied to further understand the functional capacities, ecological structure and dynamics of the plant-microbe interaction. Due to climatic changes, there is an urgent need to bring microbial innovations into practice. Mitigation of Plant Abiotic Stress by Microorganisms: Applicability and Future Directions is a comprehensive review of the different strategies available to improve the plant microbiome. Chapters include key topics such as: harnessing endophytic microbial diversity, microbial genes for improving abiotic stress tolerance, and microbial bioformulations. Putting these strategies into practice can have varying success in the field, so it is crucial that scientists are equipped with the knowledge of which microorganisms are needed, as well as the use and suitability of delivery approaches and formulations. This title will be an essential read for researchers and students interested in plant microbial technologies and plant bio stimulants, plant pathology, biocontrol, agronomy, and environmental mediation. Discusses adaptive mechanisms of plant against multiple stresses Highlights diversity of symbiotic microorganisms associated with insects and their impact on host plants Provides functional genomics tools for studying microbe-mediated stress tolerance