Saurabh Gangola – författare

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

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

Microbial Stress Biology offers a comprehensive understanding of the adaptation strategies of microbes at the biochemical and molecular level in response to stressful conditions, while also detailing the molecular mechanisms that enable microbial organisms to survive and persist under these adverse circumstances. The book discusses a wide array of topics related to microbial adaptation, covering fundamental biological responses to stress, microbial adaptations at cellular, genomic, and proteomic levels, as well as specific adaptations and regulations to various environmental stress factors such as pH fluctuations, chemicals, and extreme thermal conditions.Sections also highlight the application of omics technology and predictive modeling in understanding microbial stress biology for various fields, including biotechnology, medicine, bioremediation, and industrial processes. This book is an informative resource for those in microbiology, molecular biology, biotechnology, and other related fields who are searching for a better understanding of how microbes are able to sense and respond to distinct stressors at both molecular and cellular levels.Offers a fundamental exploration of how microbial life adapts and evolves at the molecular levelCovers the intricate mechanisms of microbial adaptation to diverse stressors, from environmental shifts to human-induced disturbancesExplores the molecular strategies microbes employ to not just survive but thrive amidst challenging conditions

Microbial Stress Biology offers a comprehensive understanding of the adaptation strategies of microbes at the biochemical and molecular level in response to stressful conditions, while also detailing the molecular mechanisms that enable microbial organisms to survive and persist under these adverse circumstances. The book discusses a wide array of topics related to microbial adaptation, covering fundamental biological responses to stress, microbial adaptations at cellular, genomic, and proteomic levels, as well as specific adaptations and regulations to various environmental stress factors such as pH fluctuations, chemicals, and extreme thermal conditions.Sections also highlight the application of omics technology and predictive modeling in understanding microbial stress biology for various fields, including biotechnology, medicine, bioremediation, and industrial processes. This book is an informative resource for those in microbiology, molecular biology, biotechnology, and other related fields who are searching for a better understanding of how microbes are able to sense and respond to distinct stressors at both molecular and cellular levels. - Offers a fundamental exploration of how microbial life adapts and evolves at the molecular level- Covers the intricate mechanisms of microbial adaptation to diverse stressors, from environmental shifts to human-induced disturbances- Explores the molecular strategies microbes employ to not just survive but thrive amidst challenging conditions

Microorganisms are ubiquitous on earth. These microorganisms are able to perform various functions in the environment. Microbial applications are used as biofertilizers, bioremediation, biofortification and other sustainable approaches of environmental development. Indigenous microbial cultures have the potential to perform various functions that are beneficial to achieve the sustainable goals. To date, different strains have been commercialized for the industrial and common applications for the sustainable environment. This book will cover different aspects of microbial technology for sustainable development.

Microorganisms are ubiquitous on earth. These microorganisms are able to perform various functions in the environment. Microbial applications are used as biofertilizers, bioremediation, biofortification and other sustainable approaches of environmental development. Indigenous microbial cultures have the potential to perform various functions that are beneficial to achieve the sustainable goals. To date, different strains have been commercialized for the industrial and common applications for the sustainable environment. This book will cover different aspects of microbial technology for sustainable development.

Microorganisms are ubiquitous on earth. These microorganisms are able to perform various functions in the environment. Microbial applications are used as biofertilizers, bioremediation, biofortification and other sustainable approaches of environmental development. Indigenous microbial cultures have the potential to perform various functions that are beneficial to achieve the sustainable goals. To date, different strains have been commercialized for the industrial and common applications for the sustainable environment. This book will cover different aspects of microbial technology for sustainable development.

This book addresses the advanced computational techniques used to study microbial ecosystems in diverse environments. It also enables the readers to understand microbial communities and their interaction for sustainable environmental management. This book showcases the widespread use of computational biology, bioinformatics and advanced molecular tools (such as metagenomics, proteomics and genomics) in different fields of microbial assessment. It also discusses use of these techniques in bioremediation of pesticides, dye, heavy metals, hydrocarbon, e- waste, microbial enzymes, as well as in wastewater quality assessment and biological soil health assessment. Exploring computational approaches in biotechnology - such as microbial enzyme discovery, metabolic engineering, and bioprocess optimization - for sustainable bioenergy production, waste treatment and the future challenges of biodegradation and bioremediation of environment pollutants is also a key focus of the book.Students, researchers and scientists working in the field of environmental microbiology, agricultural microbiology and bioremediation can use this book as a valuable reference. Policy makers and industrialists of these fields may also find the book insightful.

This book explores how plants interact with their environment, especially in the face of climate change. It explains how changing weather patterns and environmental conditions impact plant growth, health, and survival. The book also highlights how plants adapt to stress and the role of science and technology in helping plants cope with these changes.The chapters cover a wide range of topics such as the effects of climate change on plant physiology and growth, adaptation strategies, distribution patterns, and conservation. It also discusses sustainable agriculture, advanced research tools like phenomics and green nanotechnology, and even the role of microbes, epigenetics, and socio-economic factors in plant-environment interactions.This book is a valuable resource for students, researchers, educators, and professionals in plant sciences, agriculture, environmental studies, and climate science. It offers updated knowledge and innovative solutions for managing plant systems sustainably in a changing world.

This book explores how plants interact with their environment, especially in the face of climate change. It explains how changing weather patterns and environmental conditions impact plant growth, health, and survival. The book also highlights how plants adapt to stress and the role of science and technology in helping plants cope with these changes.The chapters cover a wide range of topics such as the effects of climate change on plant physiology and growth, adaptation strategies, distribution patterns, and conservation. It also discusses sustainable agriculture, advanced research tools like phenomics and green nanotechnology, and even the role of microbes, epigenetics, and socio-economic factors in plant-environment interactions.This book is a valuable resource for students, researchers, educators, and professionals in plant sciences, agriculture, environmental studies, and climate science. It offers updated knowledge and innovative solutions for managing plant systems sustainably in a changing world.

The book is a comprehensive resource that explores the critical relationship between microorganisms and a changing climate. It examines how shifting environmental conditions—such as rising temperatures, altered precipitation, and ocean acidification—impact microbial communities and their essential roles in ecosystems. The book also highlights the remarkable ways microbes adapt to these changes, from genetic and physiological shifts to ecological adjustments.Through chapters covering diverse topics like microbial contributions to greenhouse gases, soil carbon sequestration, responses to extreme weather, and bioremediation strategies, this book offers both theoretical insights and practical solutions. It is an invaluable resource for environmental scientists, microbiologists, climate researchers, advanced students, and policymakers seeking to understand and address the role of microbes in the global climate crisis.

The book is a comprehensive resource that explores the critical relationship between microorganisms and a changing climate. It examines how shifting environmental conditions-such as rising temperatures, altered precipitation, and ocean acidification-impact microbial communities and their essential roles in ecosystems. The book also highlights the remarkable ways microbes adapt to these changes, from genetic and physiological shifts to ecological adjustments.Through chapters covering diverse topics like microbial contributions to greenhouse gases, soil carbon sequestration, responses to extreme weather, and bioremediation strategies, this book offers both theoretical insights and practical solutions. It is an invaluable resource for environmental scientists, microbiologists, climate researchers, advanced students, and policymakers seeking to understand and address the role of microbes in the global climate crisis.