Ramesh Namdeo Pudake – författare

Nanozymes: Approachable Bio-applications provides an in-depth overview of nanozymes, with a special focus on nanozymes synthesis and their various applications in biological sciences. The book starts with introductory chapters exploring the enzymatic mechanism of nanozymes and providing the concept of engineering to surface modification to achieve enhanced nanozymatic properties. Subsequent chapters focus on the application of nanozymes in many different fields, including biomedical science, agriculture, environmental science and more.This work is an important reference source for worldwide materials scientists and researchers interested on the resent developments, challenges, and future directions of nanozymes research.Highlights recent developments and future directions of nanozymes research for readers across multidisciplinary fieldsFeatures a broad range of applications of nanozymes, from environmental monitoring to therapeutic applicationsIncludes numerous illustrations to help readers easily understand the role of nanozymes-based tools in different areas

Nanotechnology for Abiotic Stress Tolerance and Management in Crop Plants reviews the most recent literature on the role of nanomaterials in achieving sustainability in crop production in stressful environments. The book explores the adverse conditions caused by abiotic stress to crop plants and the methods by which these conditions can be potentially overcome through developments in nanoscience and nanotechnology. Abiotic stresses such as drought, salinity, temperature stress, excessive water, heavy metal stress, and UV stress are major factors which may adversely affect the growth, development, and yield of crops.While recent research for ways of overcoming the physiological and biochemical changes brought on by these stresses has focused on genetic engineering of plants, additional research continues into alternative strategies to develop stress tolerant crops, including the use of nanoscience and nanotechnology.

Presents advancements in our understanding of molecular and physiological interactions between nanoparticles and crop plantsIncludes figures and illustrations to help readers visualize and easily understand the role of nanomaterialsServes as an ideal reference for those studying smart nanomaterials, biosensors, and nanodevices for real-time plant stress measurement

Millets are popularly known as “nutri-cereals” due to their high calcium, dietary fiber, polyphenol, vitamins, and protein content. Millet crops have the potential to aid in food security efforts in regions where natural and manmade causes are deteriorating land resources. Nutriomics of Millet Crops emphasizes the importance of nutriomics of millet crops in the context of universal health, highlighting biotechnological advancements offering enrichment of the nutritional value of millets. Millet crops have the potential to be a staple crop, demonstrating an economically feasible approach to combat micronutrient malnutrition.Features:Presents comprehensive studies on health-promoting nutritional components of millets.Provides enumeration on molecular breeding strategies for improvement of millet nutraceuticals.Discusses genomics-assisted breeding for enhancement of nutritional quality in millets.Includes information related to sensory and biofortification of millet-based foods.By assessing the relevance of millets in sustainable global agro-ecosystems due to their nutritional and agronomic attributes, the United Nations celebrated 2023 as the “International Year of Millets.” This book complements this effort and is useful to researchers and policy planners working across the disciplines of plant breeding and food technology. Nutriomics of Millet Crops also encourages young researchers to explore this promising field.

The book examines the use of nanobiosensors in the monitoring of food additives, toxins and mycotoxins, microbial contamination, food allergens, nutritional constituents, pesticides, environmental parameters, plant diseases and genetically modified organisms.

The book examines the use of nanobiosensors in the monitoring of food additives, toxins and mycotoxins, microbial contamination, food allergens, nutritional constituents, pesticides, environmental parameters, plant diseases and genetically modified organisms.

Microbial diversity and microbial technology are critical to achieving most of the UN Sustainable Development Goals (SDGs), mainly due to their central role in the provision and regulation of ecosystem services. Despite this intensification of effort, more than 90% of microbial diversity remains to be discovered. Thus, the most unique characteristic of microbial technology is the exceptional diversity of applications it can address and the range of human activities and needs to which it is and can be applied. Separately, nanotechnology and microbiology have produced innovative solutions for human well-being and ecological and environmental equilibrium. The development of interdisciplinary research practices combining nanotechnology and microbiology to deliver creative solutions for human health and environmental and ecological damage is urgently required. The nanotechnology of microorganisms is contributing to the development and innovation of numerous industries.This book will explain the fundamentals and methods of the biological production of nanoparticles from microorganisms, such as bacteria, fungi, and algae. It will describe optimization strategies for microbe-mediated nanoparticle production. The book will also discuss the industrial and agricultural applications of nanoparticles produced by microbes. It also describes the applications of green nanoparticles in the health and pharmaceutical sectors, such as the treatment of multidrug-resistant infections and cancer.Overall, the book focuses on the broad subject areas of microbial nanotechnology and its possible applications in food, pharmaceuticals, water, environmental remediation, etc. However, the lack of information and the potential for negative effects on the environment, human health, safety, and sustainability remain obstacles. This book addresses these issues. Researchers and students in the agricultural sciences, materials sciences, biotechnology, microbiology, and pharmaceutical sectors will find this an invaluable resource.

Engineered nanomaterials have become relevant in large-scale industrial applications and are used in many common devices and products. Their intentional and non-intentional release into the environment may have negative effects in terms of the health of humans and plants. There is increasing concern about nanotoxicity in plants because they are not only a fundamental part of the ecology but also the basis of trophic systems. Nanotoxicology is the branch of toxicology responsible for describing the effects of nanomaterials on living organisms and the environmental consequences resulting from their use. Thorough studies are important because nanomaterials have stronger toxicological effects than those reported for the same materials in bulk or in solution. The main toxicological factor observed in various organisms is oxidative stress. Many techniques have been used to evaluate the toxicity of nanomaterials in plants; however, currently, there is no consensus on the optimal method for evaluating toxicity in plants. A concern is that bioaccumulation of nanoparticles in plants can enter the food chain of animals and humans, constituting a health problem. Therefore, extensive safety research projects and regulations are urgently needed.This volume focuses on the mechanisms and analytical methodologies that are important in plant nanotoxicity and reviews the present status of the nanomaterials that might be directly and indirectly encountering plants. It discusses the characterization of nanomaterials in pristine form and complex biomolecules. The properties of ENM that are important for plant growth or toxicity, and the techniques to study the physiological and molecular impacts on plant bioprocess, are summarized in this volume. Studies on new omics technologies like transcriptomics, proteomics, and metabolomics for a deeper understanding of plant nanotoxicology are also discussed. The book serves as a valuable reference source for graduate students, researchers, academicians, and scientists of plant science and nanotechnology. It is a reference book for undergraduate and graduate students in life science disciplines as a bridge between textbooks and recent scientific literature, providing an in-depth knowledge of phyto-nanotoxicology.

This book discusses the ability of nanomaterials to protect crop-plant and animal health, increase production, and enhance the quality of food and other agricultural products. It explores the use of targeted delivery and slow- release agrochemicals to reduce the damage to non-target organisms and the quantity released into the soil and water, as well as nanotechnology-derived tools in the field of plant and animal genetic improvement. It also addresses future applications of nanotechnology in sustainable agriculture and the legislative regulation and safety evaluation of nanomaterials.The book highlights the recent advances made in nanotechnology and its contribution towards an eco-friendly approach in agriculture.

This book presents a timely review of the latest advances in rhizosphere biology, which have been facilitated by the application of omics tools. It includes chapters on the use of various omics tools in rhizosphere biology, focusing on understanding plant and soil microbe interactions. The role of proteomics and metagenomics in research on symbiotic association is also discussed in detail. The book also includes chapters on the use of omics tools for the isolation of functional biomolecules from rhizospheric microorganisms. The book’s respective sections describe and provide detailed information on important omics tools, such as genomics, transcriptomics, proteomics, metabolomics and meta-epigenomics. In turn, the book promotes and describes the combined use of plant biology, microbial ecology, and soil sciences to design new research strategies and innovative methods in soil biology. Lastly, it highlights the considerable potential of the rhizosphere in terms of crop productivity, bioremediation, ecological engineering, plant nutrition and health, as well as plant adaptation to stress conditions.This book offers both a practical guide and reference source for all scientists working in soil biology, plant pathology, etc. It will also benefit students studying soil microbiology, and researchers studying rhizosphere structure.

This book presents a timely review of the latest advances in rhizosphere biology, which have been facilitated by the application of omics tools. It includes chapters on the use of various omics tools in rhizosphere biology, focusing on understanding plant and soil microbe interactions. The role of proteomics and metagenomics in research on symbiotic association is also discussed in detail. The book also includes chapters on the use of omics tools for the isolation of functional biomolecules from rhizospheric microorganisms. The book’s respective sections describe and provide detailed information on important omics tools, such as genomics, transcriptomics, proteomics, metabolomics and meta-epigenomics. In turn, the book promotes and describes the combined use of plant biology, microbial ecology, and soil sciences to design new research strategies and innovative methods in soil biology. Lastly, it highlights the considerable potential of the rhizosphere in terms of crop productivity, bioremediation, ecological engineering, plant nutrition and health, as well as plant adaptation to stress conditions.This book offers both a practical guide and reference source for all scientists working in soil biology, plant pathology, etc. It will also benefit students studying soil microbiology, and researchers studying rhizosphere structure.

This edited book covers all aspects of omics approaches used for the varietal improvement of millets in changing climatic conditions.

This edited book covers all aspects of omics approaches used for the varietal improvement of millets in changing climatic conditions.

while small millets are composed of six species that includes finger millet (Eleusine coracana (L.)), little millet (Panicum sumatrense), kodo millet (Paspalum scrobiculatum (L.)), foxtail millet (Setaria italica (L.)), barnyard millet (Echinochloa frumentacea (L.)), and proso millet (Panicum miliaceum (L.).