The ongoing global climate change triggered by greenhouse gas growth has had a significant effect on the microbial dynamics of plants and soils. This volume explores the various microbial responses of plants and soils caused directly or indirectly by climate change resulting from rising greenhouse gases and other factors. The book considers the rapidly changing environment and the important role of microbiomes in restoring soil and plant health and in creating sustainable approaches. It discusses the adaptation and mitigation of plants and soils, specifically addressing such topics as biogeochemical processes, antimicrobial resistance, the dynamics of bacteria and fungus in extreme environments, bacterial siderophores for sustainability, and more. The volume also looks at edaphic and regeneration performance of tree species in the temperate forests.

It presents the research that addresses a diverse array of topics on the impact of climate change on plant-microbe interactions and microbial aquatic life, change-induced aggravations in microbial populations and processes. The book also addresses microbial foodborne diseases resulting from challenging climates. Other topics include algae as indicators of climate change and strategies for facilitating sustainable agro-ecosystems.

Plant Endophytes and Secondary Metabolites provides the latest insights into the essential roles of these beneficial elements in plant growth, development, stress tolerance and plant protection from soil-borne disease.The book provides a comprehensive guide, addressing the usefulness and utility of endophytes towards enhancing plant tolerance to abiotic or biotic stress. It identifies biomolecules with unique molecular architectures, novel enzymes of industrial importance and explores the ecology and community structure of endophytes associated with host plants and their potential. Plant Endophytes and Secondary Metabolites provides insights into the endophytic microbiomes that are associated with diverse environments and includes case studies and nano-techniques for exploring endophytic potential.The book addresses the needs of researchers and advanced level students in agriculture, plant sciences, and biochemistry, seeking to underestand plant and soil microbiome sustainable ecosystem services.

Rhizosphere: Ecology, Management and Application highlights the use of the rhizosphere microbiome to improve plant and soil health, including strengthening stress resistance and remediating negatively impacted soils. The book focuses on current developments and applications of related low input management strategies in high-value crops as well as non-food plants. Further sections provide insights into the ecology and functions of these interactions, including evidence that plant microbiota is vital for plant growth and stress resilience and health. It highlights fundamental microbiome research to help readers better understand the dynamics within microbial communities and their interactions with various plant hosts and the environment. Microbial-root associations are essential to assist plants under abiotic and biotic stresses and are necessary and beneficial to enhancing agricultural crop production. Numerous studies have enhanced our vision of the complex interactions between the plant, the associated microbial communities, and the environment. Further, microbe – microbe interactions allow the simulation microbial community interactions naturally, and is one of the many modern methods for the development of novel and effective metabolites.

Microbiome Drivers of Ecosystem Function focuses on the advancements in microbial technologies towards harnessing the microbiome for improved crop productivity and health that are at the frontier of agricultural sciences. It provides insights into the diversity of endophytic microbiomes and their potential utility in agricultural production. Increased crop yield through chemical interventions have limit thresholds and alternative, natural and/or integrated approaches are increasingly needed. Microbial inoculants among the ways in which food production efficiency can be improved. Plant growth-promoting soil organisms increase net crop uptake of soil nutrients, resulting in larger crops and higher yields of harvested food. These and other symbiotic associations between plants and microbes can ultimately be exploited for the increased food production necessary to feed the world, in addition to creating safer farming techniques that minimize ecological disruption. As a volume in the Microbiome Research in Plants and Soil series, Microbiome Drivers of Ecosystem Function serves as an ideal reference for researchers and students in the fields of agricultural biotechnology, biochemistry, environmental science, plant biology, agricultural sciences, and agricultural engineering.

Extremophiles are organisms that live in extreme conditions. Their ability of surviving in extreme environments is due to their unique physiological and genetic adaptations. Extremophiles are harnessed for their extremozymes that have wide applications in biotechnology, pharmaceutics and industry. Recent developments in genomics and proteomics have helped unravel the mechanism of survival, physiological adaptation and genomics structure of extremophiles. This book covers the latest developments in understanding the physiology and biochemistry of extremophiles. It gives a complete idea about the microorganisms in these groups along with their biotechnological applications and also discusses the molecular genomics and molecular aspects of the extremophiles. It also presents detailed aspects related to newer applications of extremophiles in the industry will also be covered. The study of extremophiles is gaining wide interest and this book bridges the critical gap in knowledge related to extremophiles. This book is essential to anyone who is interested in studying the microbiology, biochemistry and application of these microorganisms.