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During the 20th century, agriculture underwent many unsustainable changes for the sake of greater food production. Today, the effects of climate change are becoming ever more apparent and the global population continues to grow, placing additional pressures on agricultural systems. For this reason, it is vital to turn international agriculture towards a sustainable future capable of providing healthy, bountiful foods by using methods that preserve and reconstruct the balance of natural ecosystems.Fungi are an underappreciated, underutilized group of organisms with massive potential to aid in the production of healthy food and other products while also increasing the sustainability of agricultural systems. Mycoagroecology: Integrating Fungi into Agroecosystems lays the foundations for integrated fungal-agricultural understanding and management, the proposed practice of “mycoagroecology”. Suitable for students and professionals of multiple disciplines, this text includes nine introductory chapters that create a firm foundation in ecosystem functioning, evolution and population dynamics, fungal biology, principles of crop breeding and pest management, basic economics of agriculture, and the history of agricultural development during the 20th century. The latter half of the text is application-oriented, integrating the knowledge from the introductory chapters to help readers understand more deeply the various roles of fungi in natural and agricultural systems:PARTNERS: This text explores known benefits of wild plant-fungal mutualisms, and how to foster and maintain these relationships in a productive agricultural setting.PESTS AND PEST CONTROL AGENTS: This text acknowledges the historical and continuing role of agriculturally significant fungal pathogens, surveying modern chemical, biotechnological, and cultural methods of controlling them and other pests. However, this book also emphasizes the strong potential of beneficial fungi to biologically control fungal, insect, and other pests.PRODUCTS: This text covers not just isolated production of mushrooms on specialized farms but also the potential for co-cropping mushrooms in existing plant-based farms, making farm systems more self-sustaining while adding valuable and nutritious new products. An extensive chapter is also devoted to the many historical and forward-facing uses of fungi in food preservation and processing.

Increased world population, decreased water supply, and climate change all put stresses on the global food supply. An exploration of the challenges and possible solutions to improve yields of the main crops, such as cereals, roots, tubers, and grasses, Omics Technologies and Crop Improvement reviews data on food sciences and omics. The book covers modern omic technologies such as nutrigenomics and metagenomics. It provides a detailed examination of how omics can help crop science and horticulture and introduces the benefits of using these technologies to increase crop yields and other features such as resistance and nutritional values.The book highlights crop improvements such as increased yield, drought resistance, disease resistance, and value-added performance through a non-transgenic format. It explores how the different omics technologies, especially the most recent ones (proteomics, metabolomics, nutrigenomics, ionomics, and metagenomics) would be used to improve the quantitative and qualitative features of crop plants. Topics covered include: Advances in omics for improved fresh cropsTranscriptome analyses on the drought response using drought tolerant near isogenic linesMetabolite profiling that reveals different effects of nitrogen amendments on vegetablesOmics technology application to forage crops improvementSecondary metabolites and plant tissue cultureRNAi technology and crop improvementGene expression analysis methods with NGS dataWeb database resources and crops improvementGene Expression Networks (GEN) in cropsSpecific crop improvement (papaya, wheat, coffee, potato, and more) With contributions from pioneering researchers from twelve countries, the book presents a broad view of how omics would help crop science and horticulture meet the challenges of a shrinking global food

Taking a broad and innovative informational approach, Sustainable Agriculture and New Biotechnologies is the first book to apply omic technologies to address issues related to understanding and improving agricultural sustainability in the food production process. The transformation from industrial to sustainable agriculture is discussed within the frameworks of new biotechnologies and global environmental changes. While considering this transformation, the book covers: The use of new biotechnologies to help in the creation of more sustainable agricultural practices, including methods in molecular biology, genetic engineering, and the new emerging technologies, such as metabolomics, metagenomics, nutrigenomics, and ionomicsThe path to reach the goal of the global sustainable agricultural and food production systems in a world of limited natural resources and growing environmental degradationPrinciples that regulate the new agricultural and food production systems including breeding programs for more sustainable crops, soil management, and environment preservation It is clear that biotechnological approaches will become increasingly important in the future and that a shift from industrial to a sustainable agriculture will be necessary. While many books tend to make "a quick and easy link" between these two different worlds, Sustainable Agriculture and New Biotechnologies describes exactly how omics can contribute to greater food productivity and security, and agricultural sustainability in the future.

We hear a lot about how agriculture affects climate change and other environmental issues, but we hear little about how these issues affect agriculture. When we look at both sides of the issues, we can develop better solutions for sustainable agriculture without adversely affecting the environment. Agroecology, Ecosystems, and Sustainability explores a modern vision of ecology and agricultural systems, so that crop production can be sustainably developed without further environmental degradation. With contributions from experts from more than 20 countries, the book describes how to make the transition to modern agroecology to help the environment. It examines the global availability of natural resources and how agroecology could allow the world population to reach the goal of global sustainable ecological, agricultural, and food production systems. The book discusses important principles that regulate agroecological systems, including crop production, soil management, and environment preservation. Making the link between theory and practices, the book includes examples of agroecology such as an interdisciplinary framework for the management of integrated production and conservation landscapes and the use of mechanized rain-fed farming and its ecological impact on drylands. An examination of how ecology and agriculture can be allied to ensure food production and security without threatening our environment, the text shows you how natural resources can be used in a manner to create a "symbiosis" to preserve ecological systems and develop agriculture.

Presenting an overview of agroecology within the framework of climate change, this book looks at the impact of our changing climate on crop production and agroecosystems, reporting on how plants will cope with these changes, and how we can mitigate these negative impacts to ensure food production for the growing population. It explores the ways that farmers can confront the challenges of climate change, with contributed chapters from around the world demonstrating the different challenges associated with differing climates. Examples are provided of the approaches being taken right now to expand the ecological, physiological, morphological, and productive potential of a range of crop types. Describes the effects and responses of the macro and micro levels of crops under the different components of climate changeReports on the adaptation and resilience of food production systems within the changing climateCovers how plants cope with the changing climate including physiological, biochemical, phenotype, and ecosystem responsesProvides an in-depth discussion on the importance of agricultural education connected to climate changeGiving readers a greater understanding of the mechanisms of plant resilience to climate change, this book provides new insights into improving the productivity of an individual crop species as well as bringing resistance and resiliency to the entire agroecosystem. It offers a strong foundation for changing research and education programs so that they build the resistance and resilience that will be needed for the uncertain climate future ahead.

An in-depth treatment of cutting-edge work being done internationally to develop new techniques in crop nutritional quality improvementPhytonutritional Improvement of Crops explores recent advances in biotechnological methods for the nutritional enrichment of food crops. Featuring contributions from an international group of experts in the field, it provides cutting-edge information on techniques of immense importance to academic, professional and commercial operations.World population is now estimated to be 7.5 billion people, with an annual growth rate of nearly 1.5%. Clearly, the need to enhance not only the quantity of food produced but its quality has never been greater, especially among less developed nations. Genetic manipulation offers the best prospect for achieving that goal. As many fruit crops provide proven health benefits, research efforts need to be focused on improving the nutritional qualities of fruits and vegetables through increased synthesis of lycopene and beta carotene, anthocyanins and some phenolics known to be strong antioxidants. Despite tremendous growth in the area occurring over the past several decades, the work has only just begun. This book represents an effort to address the urgent need to promote those efforts and to mobilise the tools of biotechnical and genetic engineering of the major food crops. Topics covered include: New applications of RNA-interference and virus induced gene silencing (VIGS) for nutritional genomics in crop plantsBiotechnological techniques for enhancing carotenoid in crops and their implications for both human health and sustainable developmentProgress being made in the enrichment and metabolic profiling of diverse carotenoids in a range of fruit crops, including tomatoes, sweet potatoes and tropical fruitsBiotechnologies for boosting the phytonutritional values of key crops, including grapes and sweet potatoesRecent progress in the development of transgenic rice engineered to massively accumulate flavonoids in-seedPhytonutritional Improvement of Crops is an important text/reference that belongs in all universities and research establishments where agriculture, horticulture, biological sciences, and food science and technology are studied, taught and applied.

A Detailed Reference on How Modern Biotechnology is using the Biofortification of Crops to Improve the Vitamin and Mineral Content of Edible PlantsIn this reference, Vitamins and Minerals Bio-Fortification of Edible Plants, authors cover new territory on phytonutrients, focusing on the enhancement and modification of edible crops. This book presents techniques and research findings from modern biotechnology to educate readers on the newest tools and research in the field. Readers will learn how groundbreaking scientific advances have contributed to the nutritional content of edible plants and crops for animals and humans. Inside, readers will find comprehensive information on new concepts of biofortification, including but not limited to:●      Modern biotechnology and its uses for improving the vitamin and mineral content of edible plants●      Potential minerals and vitamins that can be targeted and implemented in agriculture●      Ways of enhancing the nutritional contents of edible plants to address nutritional deficiencies and improve livestock●      Methods of identifying plants that can be used to heal or prevent disease and illness While many books cover the phytonutrients of crops, this reference book reports on methodologies, techniques, and environmental changes used to enhance and improve agricultural products. It is one of the first to provide information on using modern biotechnologies to modify crops with the goal of creating health benefits.

Climate Change and Agriculture Authoritative and comprehensive resource covering climate-smart agriculture with key insights into its implementation Climate Change and Agriculture provides a complete overview of the development of sustainable agroecosystems and cropping systems and details how to improve the resilience of cultivated crops and cropping systems to the adverse conditions of the climate, such as drought, increasing levels of carbon dioxide, global warming, and many other secondary effects such as soils fertility depletion, uncommon disease, and pests. Additionally, the text suggests different agricultural practices to face the severity of frequency of the natural events. Climate Change and Agriculture also delves into the different climate-resilient methods and climate-smarter agriculture (CSA) for food production by building healthier soils through different sustainable practices, redesigning diverse agroecosystems, and developing new crop varieties, livestock breeds, and farm practices. Insight into how modern technology has affected the field, and how it may affect the field in the future, is included. Other topics discussed in Climate Change and Agriculture include: Climate change and agriculture (state of the art, challenges, and perspectives), plus studies on crop yields and their extreme value analysis over IndiaSymbiosis for food security and sustainability in changing climate and emerging issues related to conservation agriculture in AfricaThe role of periurban agriculture in sustainability and climate change, with additional information on nutrient management in agro-ecosystemsSoil fertility management and biofertilization in changing climate and biochar mitigating abiotic stress-induced damages under changing climateFor academics and students; seed, fertilizer, and chemical producers; farmers and farming communities; and policy makers, Climate Change and Agriculture contains invaluable insights into the subject that are helpful in understanding the current state of the field and preparing for potential future developments.

Presenting an overview of agroecology within the framework of climate change, this book looks at the impact of our changing climate on crop production and agroecosystems, reporting on how plants will cope with these changes, and how we can mitigate these negative impacts to ensure food production for the growing population. It explores the ways that farmers can confront the challenges of climate change, with contributed chapters from around the world demonstrating the different challenges associated with differing climates. Examples are provided of the approaches being taken right now to expand the ecological, physiological, morphological, and productive potential of a range of crop types. Describes the effects and responses of the macro and micro levels of crops under the different components of climate changeReports on the adaptation and resilience of food production systems within the changing climateCovers how plants cope with the changing climate including physiological, biochemical, phenotype, and ecosystem responsesProvides an in-depth discussion on the importance of agricultural education connected to climate changeGiving readers a greater understanding of the mechanisms of plant resilience to climate change, this book provides new insights into improving the productivity of an individual crop species as well as bringing resistance and resiliency to the entire agroecosystem. It offers a strong foundation for changing research and education programs so that they build the resistance and resilience that will be needed for the uncertain climate future ahead.

This book reviews the evidence supporting the influence of plant fibers on our daily life by either having impacts on our nutrition or improving processed foods for human and animal feeding. By bringing new information and updating existing scientific data, this book will also be a consistent source of information for both professional and non-professionals that are involved in food science and technology, nutrition, and even medical sciences related to human health and well-being.

Since the completion of the Human Genome Project, food and nutrition sciences have undergone a fundamental molecular transformation. New discoveries in molecular biology, analytical chemistry, and biochemistry have led to the development of new tools that are likely to revolutionize the study of food. OMICS Technologies: Tools for Food Science explores how these tools reveal the fundamental pathways and biochemical processes that drive food and nutrition sciences.In this volume, an international panel of researchers examines the rise of these new technologies—including metabolomics, metagenomics, nutrigenomics, transcriptomics, and proteomics—and describes how they translate to food science research and productive technologies. The book explains how these methods can be used to assess the quality attributes of foods and food production systems. It explores the principles that regulate food production, analyzes processing and ethical issues, and documents the transformation from industrial to sustained foods production using the OMICS tools. Providing comprehensive information on OMICS and food and nutrition science, this volume is a reliable reference for food scientists, nutritionists, and food product developers looking to implement OMIC technologies in product development. It is also a critical resource for food industry personnel, regulators, and government researchers who need to understand the role of these emerging technologies in advancing food science and nutrition.

Taking a broad and innovative informational approach, Sustainable Agriculture and New Biotechnologies is the first book to apply omic technologies to address issues related to understanding and improving agricultural sustainability in the food production process. The transformation from industrial to sustainable agriculture is discussed within the frameworks of new biotechnologies and global environmental changes. While considering this transformation, the book covers: The use of new biotechnologies to help in the creation of more sustainable agricultural practices, including methods in molecular biology, genetic engineering, and the new emerging technologies, such as metabolomics, metagenomics, nutrigenomics, and ionomicsThe path to reach the goal of the global sustainable agricultural and food production systems in a world of limited natural resources and growing environmental degradationPrinciples that regulate the new agricultural and food production systems including breeding programs for more sustainable crops, soil management, and environment preservation It is clear that biotechnological approaches will become increasingly important in the future and that a shift from industrial to a sustainable agriculture will be necessary. While many books tend to make "a quick and easy link" between these two different worlds, Sustainable Agriculture and New Biotechnologies describes exactly how omics can contribute to greater food productivity and security, and agricultural sustainability in the future.

Since the completion of the Human Genome Project, food and nutrition sciences have undergone a fundamental molecular transformation. New discoveries in molecular biology, analytical chemistry, and biochemistry have led to the development of new tools that are likely to revolutionize the study of food. OMICS Technologies: Tools for Food Science explores how these tools reveal the fundamental pathways and biochemical processes that drive food and nutrition sciences.In this volume, an international panel of researchers examines the rise of these new technologies—including metabolomics, metagenomics, nutrigenomics, transcriptomics, and proteomics—and describes how they translate to food science research and productive technologies. The book explains how these methods can be used to assess the quality attributes of foods and food production systems. It explores the principles that regulate food production, analyzes processing and ethical issues, and documents the transformation from industrial to sustained foods production using the OMICS tools. Providing comprehensive information on OMICS and food and nutrition science, this volume is a reliable reference for food scientists, nutritionists, and food product developers looking to implement OMIC technologies in product development. It is also a critical resource for food industry personnel, regulators, and government researchers who need to understand the role of these emerging technologies in advancing food science and nutrition.

This book reviews the evidence supporting the influence of plant fibers on our daily life by either having impacts on our nutrition or improving processed foods for human and animal feeding. By bringing new information and updating existing scientific data, this book will also be a consistent source of information for both professional and non-professionals that are involved in food science and technology, nutrition, and even medical sciences related to human health and well-being.

Increased world population, decreased water supply, and climate change all put stresses on the global food supply. An exploration of the challenges and possible solutions to improve yields of the main crops, such as cereals, roots, tubers, and grasses, Omics Technologies and Crop Improvement reviews data on food sciences and omics. The book covers modern omic technologies such as nutrigenomics and metagenomics. It provides a detailed examination of how omics can help crop science and horticulture and introduces the benefits of using these technologies to increase crop yields and other features such as resistance and nutritional values.The book highlights crop improvements such as increased yield, drought resistance, disease resistance, and value-added performance through a non-transgenic format. It explores how the different omics technologies, especially the most recent ones (proteomics, metabolomics, nutrigenomics, ionomics, and metagenomics) would be used to improve the quantitative and qualitative features of crop plants. Topics covered include: Advances in omics for improved fresh cropsTranscriptome analyses on the drought response using drought tolerant near isogenic linesMetabolite profiling that reveals different effects of nitrogen amendments on vegetablesOmics technology application to forage crops improvementSecondary metabolites and plant tissue cultureRNAi technology and crop improvementGene expression analysis methods with NGS dataWeb database resources and crops improvementGene Expression Networks (GEN) in cropsSpecific crop improvement (papaya, wheat, coffee, potato, and more) With contributions from pioneering researchers from twelve countries, the book presents a broad view of how omics would help crop science and horticulture meet the challenges of a shrinking global food

We hear a lot about how agriculture affects climate change and other environmental issues, but we hear little about how these issues affect agriculture. When we look at both sides of the issues, we can develop better solutions for sustainable agriculture without adversely affecting the environment. Agroecology, Ecosystems, and Sustainability explores a modern vision of ecology and agricultural systems, so that crop production can be sustainably developed without further environmental degradation. With contributions from experts from more than 20 countries, the book describes how to make the transition to modern agroecology to help the environment. It examines the global availability of natural resources and how agroecology could allow the world population to reach the goal of global sustainable ecological, agricultural, and food production systems. The book discusses important principles that regulate agroecological systems, including crop production, soil management, and environment preservation. Making the link between theory and practices, the book includes examples of agroecology such as an interdisciplinary framework for the management of integrated production and conservation landscapes and the use of mechanized rain-fed farming and its ecological impact on drylands. An examination of how ecology and agriculture can be allied to ensure food production and security without threatening our environment, the text shows you how natural resources can be used in a manner to create a "symbiosis" to preserve ecological systems and develop agriculture.

The elapsing time from producer to consumer has significantly increased as a result of food marketing and trade globalization. Consequently, maintaining quality along the food value chain is becoming a significant challenge. Postharvest losses are considered a major component of food loss and waste in the supply chain from farmers to consumers, due to improper handling, storage, transport, preservation techniques and spoilage. Postharvest science aims to extend the shelf life of fresh and perishable commodities, and to reduce heavy losses, thereby contributing to food security. While significant progresses have been made in postharvest preservation and shelf-life extension, the continuous development of emerging technologies have changed our vision on postharvest science. Furthermore, recent advancements in molecular engineering of horticultural crops for quality improvement; the development of genomics, transcriptomics, proteomics, and metabolomics have led to a better understanding of the physiology and the biochemistry of the senescence processes, resulting in better preservation and improved production of fresh crops.This two-volume work focuses on innovative technologies that extend and preserve shelf life of fruits and vegetables. Volume 1 offers a review on the state-of-the-art modern technologies in the postharvest filed. The accompanying Volume 1 explores advanced and novel technologies after harvest, particularly the application of nanotechnologies to packaging materials.

The elapsing time from producer to consumer has significantly increased as a result of food marketing and trade globalization. Consequently, maintaining quality along the food value chain is becoming a significant challenge. Postharvest losses are considered a major component of food loss and waste in the supply chain from farmers to consumers, due to improper handling, storage, transport, preservation techniques and spoilage. Postharvest science aims to extend the shelf life of fresh and perishable commodities, and to reduce heavy losses, thereby contributing to food security. While significant progresses have been made in postharvest preservation and shelf-life extension, the continuous development of emerging technologies have changed our vision on postharvest science. Furthermore, recent advancements in molecular engineering of horticultural crops for quality improvement; the development of genomics, transcriptomics, proteomics, and metabolomics have led to a better understanding of the physiology and the biochemistry of the senescence processes, resulting in better preservation and improved production of fresh crops.This two-volume work focuses on innovative technologies that extend and preserve shelf life of fruits and vegetables. Volume 1 offers a review on the state-of-the-art modern technologies in the postharvest filed. The accompanying Volume 1 explores advanced and novel technologies after harvest, particularly the application of nanotechnologies to packaging materials.

The elapsing time from producer to consumer has significantly increased as a result of food marketing and trade globalization. Consequently, maintaining quality along the food value chain is becoming a significant challenge. Postharvest losses are considered a major component of food loss and waste in the supply chain from farmers to consumers, due to improper handling, storage, transport, preservation techniques and spoilage. Postharvest science aims to extend the shelf life of fresh and perishable commodities, and to reduce heavy losses, thereby contributing to food security. While significant progresses have been made in postharvest preservation and shelf-life extension, the continuous development of emerging technologies have changed our vision on postharvest science. Furthermore, recent advancements in molecular engineering of horticultural crops for quality improvement; the development of genomics, transcriptomics, proteomics, and metabolomics have led to a better understanding of the physiology and the biochemistry of the senescence processes, resulting in better preservation and improved production of fresh crops.This two-volume work focuses on innovative technologies that extend and preserve shelf life of fruits and vegetables. Volume 1 offers a review on the state of the art modern technologies in the postharvest filed. The accompanying Volume 2 explores advanced and novel technologies after harvest,  particularly the application of nanotechnologies to packaging materials.