This collection of essays discusses fascinating aspects of the concept that microbes are at the root of all ecosystems. The content is divided into seven parts, the first of those emphasizes that microbes not only were the starting point, but sustain the rest of the biosphere and shows how life evolves through a perpetual struggle for habitats and niches. Part II explains the ways in which microbial life persists in some of the most extreme environments, while Part III presents our understanding of the core aspects of microbial metabolism. Part IV examines the duality of the microbial world, acknowledging that life exists as a balance between certain processes that we perceive as being environmentally supportive and others that seem environmentally destructive. In turn, Part V discusses basic aspects of microbial symbioses, including interactions with other microorganisms, plants and animals. The concept of microbial symbiosis as a driving force in evolution is covered in Part VI. In closing, Part VII explores the adventure of microbiological research, including some reminiscences from and perspectives on the lives and careers of microbe hunters. Given its mixture of science and philosophy, the book will appeal to scientists and advanced students of microbiology, evolution and ecology alike.

MICROBIAL FERMENTATIONS IN NATURE AND AS DESIGNED PROCESSES Fermentation is one of the most important metabolic tools that biology has developed and microorganisms in many ways seem to have become the true masters of fermentative metabolism. Each of the fermentative microbial functions evolved to fit an energetic opportunity, and each function has ecological value. This book provides its readers with: Understanding regarding the commonalities and distinctions between aerobic and anaerobic fermentations as performed by microorganisms. A summary of knowledge regarding the ways in which animals and plants depend upon symbiotic interactions with their fermenting microbial partners including the deconstruction of complex polysaccharides. Information is also included about how those natural technologies constitute adaptation into designed processes for anaerobic degradation of lignocellulosic materials. The important role of rhizosphere microbes that facilitate availability of inorganic and organic phosphates for plants. These phosphates get stored in the plant’s seeds. After ruminant animals ingest the seeds, enzymes produced by gastrointestinal microbial fermentation allow the animals to utilize their dietary phosphates. History of how microbial fermentation has been harnessed from prehistoric times to the present for processing and preserving food products for humans and fodder for our domesticated animals. Insight into the ways that microbial fermentations are used as an engineering tool for producing chemicals, including enzymes and pharmaceuticals, which improve the health of ourselves and our domesticated animals. Perspectives on possible future research directions for the field of applied microbial fermentation that will help to advance agriculture and industry.

Comprehensive discussion of production and purification strategies for microbial enzymes important to various industries, from food and beverages to pharmaceuticals Microbial Enzymes provides expert insight into diverse aspects of microbial enzymes, highlighting strategies for their production, purification, and manipulation, elucidating eco-friendly industrial applications, and discussing several production processes, such as the production of cellulose and non-synthetic indigo dye. This book emphasizes recent technological interventions in microbial enzyme technology like metagenomics, system biology, molecular biology, genomics, directed evolution, and bioinformatics. The important microbial enzymes highlighted in this book include xylanases, ureases, methane monooxygenase, polyhydroxyalkanoates, pectinases, peroxidases, α-L-rhamnosidase, alkane hydroxylases, laccases, proteases, gallic acid decarboxylase, chitinases, beta-glucosidase, lipases, inulinases, tannase, mycozyme, ACC deaminase, ligninolytic enzymes, and many more. Novel treatment methods involving strains of microorganisms with desirable properties applicable in the process of bioremediation through mitigating climate concern, increasing green production technology, improving agriculture productivity, and providing a means of earning a livelihood are discussed. Readers will also gain state-of-the-art background knowledge on existing technologies and their current challenges and future prospects. Contributed to by leading experts in the field and edited by four highly qualified academics, Microbial Enzymes explores important topics including: Strategies for the discovery and enhancement of enzyme function, and potentials of system biology to better understand the kinetics of industrially important enzymes Production and therapeutic applications of monoclonal antibodies in cancer and other diseases, and characterization of tannase as a virulence factor Opportunities to produce enzymes through food waste and byproducts, and recent developments in computational tools Use of Omics tools in the discovery of fungal enzymes and secondary metabolites Microbial Enzymes is a thorough and highly practical reference on the subject for students, scientists, biotechnologists, microbiologists, and policymakers working in environmental microbiology, biotechnology, and environmental sciences.

Advanced Microbial Technology for Sustainable Agriculture and Environment focuses on plant-microbe interactions in respect to bioremediation and plant growth promotion, providing insights on diverse approaches such as genomics, metagenomics, proteomics, bioinformatics and other high-throughput analyses of environmentally relevant microorganisms. The impact of frequent applications of potentially toxic chemicals (pesticides and fertilizers) and increased industrialization processes on microbial diversity emphasizes the potential threat to microbial biodiversity in ecosystems. This is an ideal resource on current trends and the future of PGPR developments with bioremediation potential.Moreover, it gives a deep understanding of the genetics of microbial biodegradation and different remediation mechanisms that help to re-establish the natural environment. - Helps readers find sustainable ways for environmental clean-up and increased agricultural productivity - Gives a systematic overview of the role of PGPR in bioremediation, selection and preparation of potential PGPR microbial inoculum for bioremediation, biodegradation and plant growth promotion - Illustrates the importance of PGPR in the bioremediation of potentially hazardous and relatively novel compounds with the maintenance of sustainable agricultural productivity - Addresses emerging novel approaches of PGPR-based biodegradation of toxic compounds and highlights key developments and challenges associated with the processes

This open access book offers a comprehensive overview of the role and potential of microorganisms in the degradation and preservation of cultural materials (e.g. stone, metals, graphic documents, textiles, paintings, glass, etc.). Microorganisms are a major cause of deterioration in cultural artefacts, both in the case of outdoor monuments and archaeological finds. This book covers the microorganisms involved in biodeterioration and control methods used to reduce their impact on cultural artefacts. Additionally, the reader will learn more about how microorganisms can be used for the preservation and protection of cultural artefacts through bio-based and eco-friendly materials. New avenues for developing methods and materials for the conservation of cultural artefacts are discussed, together with concrete advances in terms of sustainability, effectiveness and toxicity, making the book essential reading for anyone interested in microbiology and the preservation of cultural heritage.

Assessing the Microbiological A timely exploration of the coordinated functions of microbiological communities and the impacts of global climate change on microbial life Ecosystems function like interlocking puzzles and ultimately the health of an ecosystem depends upon the niche activities of its microbial communities. Assessing the Microbiological Health of Ecosystems summarizes our understanding of how microbial community processes are organized and the mechanisms by which activities of their constituent species are coordinated. The authors collectively present a basis for understanding what produces healthy microbial components of an ecosystem, thereby supplying a foundation for achieving one of the eventual future goals of environmental microbiology: to diagnose and correct the integrative nature of microbial activities when ecosystems fail. Assessing the Microbiological Health of Ecosystems will prove to be a valuable resource to environmental microbiologists, ecologists and integrative biologists. The book will: help researchers and students to understand the commonalities of processes, techniques, and discoveries in the study of microbial communities contribute to understandings of how microbial communities coordinate their function, discussing how the relative rates and effective integration of community microbial processes are currently measured provide insights into the composition of a healthy microbial ecosystem By learning to recognize what constitutes and produces a healthy microbial ecosystem, we gain significant ground on the path towards being able to diagnose and correct the health of ailing microbial ecosystems. Assessing the Microbiological Health of Ecosystems will help new generations of scientists discern new ways to carry these efforts forward.

This book presents a summary of terrestrial microbial processes, which are a key factor in supporting healthy life on our planet. The authors explain how microorganisms maintain the soil ecosystem through recycling carbon and nitrogen and then provide insights into how soil microbiology processes integrate into ecosystem science, helping to achieve successful bioremediation as well as safe and effective operation of landfills, and enabling the design of composting processes that reduce the amount of waste that is placed in landfills. The book also explores the effect of human land use, including restoration on soil microbial communities and the response of wetland microbial communities to anthropogenic pollutants. Lastly it discusses the role of fungi in causing damaging, and often lethal, infectious diseases in plants and animals.

This book explains the metabolic processes by which microbes obtain and control the intracellular availability of their required metal and metalloid ions. The book also describes how intracellular concentrations of unwanted metal and metalloid ions successfully are limited. Its authors additionally provide information about the ways that microbes derive metabolic energy by changing the charge states of metal and metalloid ions. Part one of this book provides an introduction to microbes, metals and metalloids. It also helps our readers to understand the chemical constraints for transition metal cation allocation. Part two explains the basic processes which microbes use for metal transport. That section also explains the uses, as well as the challenges, associated with metal-based antimicrobials. Part three gives our readers an understanding that because of microbial capabilities to process metals and metalloids, the microbes have become our best tools for accomplishing many jobs. Their applications in chemical technology include the design of microbial consortia for use in bioleaching processes that recover metal and metalloid ions from industrial wastes. Many biological engineering tasks, including the synthesis of metal nanoparticles and similar metalloid structures, also are ideally suited for the microbes. Part four describes unique attributes associated with the microbiology of these elements, progressing through the alphabet from antimony and arsenic to zinc.

This book discusses how aquatic microbial communities develop interactive metabolic coordination both within and between species to optimize their energetics. It explains that microbial community structuration often includes functional stratification among a multitude of organisms that variously exist either suspended in the water, lodged in sediments, or bound to one another as biofilms on solid surfaces. The authors describe techniques that can be used for preparing and distributing microbiologically safe drinking water, which presents the challenge of successfully removing the pathogenic members of the aquatic microbial community and then safely delivering that water to consumers. Drinking water distribution systems have their own microbial ecology, which we must both understand and control in order to maintain the safety of the water supply. Since studying aquatic microorganisms often entails identifying them, the book also discusses techniques for successfully isolating and cultivating bacteria. As such, it appeals to microbiologists, microbial ecologists and water quality scientists.

This volume summarizes recent advances in our understanding of the mechanisms that produce successful symbiotic partnerships involving microorganisms. It begins with a basic introduction to the nature of and mechanistic benefits derived from symbiotic associations. Taking that background knowledge as the starting point, the next sections include chapters that examine representative examples of coevolutionary associations that have developed between species of microbes, as well as associations between microbes and plants. The authors conclude with a section covering a broad range of associations between microbes and invertebrate animals, in which they discuss the spectrum of hosts, with examples ranging from bryozoans and corals to nematodes, arthropods, and cephalopods. Join the authors on this journey of understanding!