Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.

There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.

Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals.

Features

Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms.

Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins.

Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants.

Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.

There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.

Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals.

Features

Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms.

Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins.

Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants.

Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals. Features Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms. Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins. Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants. Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Diseases in crops cause significant economic losses by decreasing both the yield and quality of produce. Early and accurate diagnosis of these diseases is crucial, as it enhances the effectiveness of management strategies and helps prevent long-term damage to infected plants. The need for precise, swift, and efficient methods for diagnosing diseases and detecting pathogens remains a top priority. Conventional to Emerging Advances in Plant Disease Diagnosis and Pathogen Detection comprehensively addresses key diagnostic methods and pathogen detection techniques, from their origins to the present, guiding us toward the future of plant diagnostics. It serves as a valuable resource for academics, extension workers, and growers, offering the latest information on developments in disease diagnosis and pathogen detection.The chapters within this volume offer a comprehensive journey through the historical perspectives and groundbreaking innovations that have shaped disease diagnosis. We traverse the conventional methods that have laid the foundation for our understanding, and then embark on a journey through emerging technologies that promise to revolutionize the field. This compilation aims to connect traditional knowledge with the latest technological advancements, offering a comprehensive view of the trajectory of plant disease diagnosis. Created through collaborative efforts of field experts sharing insights and experiences, this resource is not only informative but also forward-thinking. FeaturesComprehensive coverage of both traditional and contemporary diagnostic techniques for identifying plant diseases and detecting pathogens.Detailed exploration of the latest advancements and innovations in disease diagnosis and pathogen detection, providing up-to-date knowledge.In-depth discussion of cutting-edge diagnostic strategies, including artificial intelligence, machine learning, biosensors, next-generation sequencing, point-of-care assays, and CRISPR-Cas systems.Abundantly illustrated with diagrams, flowcharts, and representations to support field identification and precise diagnosis of plant diseases.

Diseases in crops cause significant economic losses by decreasing both the yield and quality of produce. Early and accurate diagnosis of these diseases is crucial, as it enhances the effectiveness of management strategies and helps prevent long-term damage to infected plants. The need for precise, swift, and efficient methods for diagnosing diseases and detecting pathogens remains a top priority. Conventional to Emerging Advances in Plant Disease Diagnosis and Pathogen Detection comprehensively addresses key diagnostic methods and pathogen detection techniques, from their origins to the present, guiding us toward the future of plant diagnostics. It serves as a valuable resource for academics, extension workers, and growers, offering the latest information on developments in disease diagnosis and pathogen detection.The chapters within this volume offer a comprehensive journey through the historical perspectives and groundbreaking innovations that have shaped disease diagnosis. We traverse the conventional methods that have laid the foundation for our understanding, and then embark on a journey through emerging technologies that promise to revolutionize the field. This compilation aims to connect traditional knowledge with the latest technological advancements, offering a comprehensive view of the trajectory of plant disease diagnosis. Created through collaborative efforts of field experts sharing insights and experiences, this resource is not only informative but also forward-thinking. Features Comprehensive coverage of both traditional and contemporary diagnostic techniques for identifying plant diseases and detecting pathogens. Detailed exploration of the latest advancements and innovations in disease diagnosis and pathogen detection, providing up-to-date knowledge. In-depth discussion of cutting-edge diagnostic strategies, including artificial intelligence, machine learning, biosensors, next-generation sequencing, point-of-care assays, and CRISPR-Cas systems. Abundantly illustrated with diagrams, flowcharts, and representations to support field identification and precise diagnosis of plant diseases.

Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.

There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.

Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals.

Features

Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms.

Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins.

Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants.

Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.

There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.

Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals.

Features

Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms.

Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins.

Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants.

Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Oxylipins are an important class of signaling molecules in plants, which play an important role in plant defence and innate immunity. Oxylipins have critical roles in plant growth and plant responses to physical damage caused by herbivores, insects, and pathogenic microbes. Over the last decade, our understanding of oxylipin production, metabolism, and function, particularly jasmonates, has advanced considerably. Jasmonates have provided further mechanistic insights into enzyme function and signalling cascades. Other oxylipins, such as hydroxy fatty acids, have recently been shown to exhibit individual signaling features and crosstalk with other phytohormones.There is scant literature on plant oxylipins and their relevance to our understanding and therefore, understanding oxylipin production, metabolism, and function is pivotal. As a result, researchers, students, professors, and other book readers will have a thorough understanding of plant oxylipin biosynthesis, structure, and function, assisting in the improvement of plant science.Plant oxylipins: metabolism, physiological roles, and profiling techniques address the mechanism, metabolism, and roles of oxylipins in plant resistance to various biotic and abiotic stimuli in detail. This book covers fundamental ideas in oxylipin production, metabolism, structural biochemistry, and signaling pathways. It also discusses cutting-edge methodologies for oxylipin metabolic profiling, with an emphasis on computing applications. This book is an excellent resource for plant scientists, plant biochemists, biotechnologists, botanists, phytochemists, toxicologists, chemical ecologists, taxonomists, and other scholars in those subjects. The book is written by a global team of professionals. Features Presents concrete and extensive information about a basic and applied aspect of plant oxylipins as well as expanded coverage of signaling mechanisms. Highlights the fundamental concepts of the biosynthesis, metabolism, structural biochemistry, and signaling pathway of oxylipins. Details the state-of-the-art methods and techniques in metabolic profiling of oxylipins in plants. Presents insights on computational applications in the evaluation and study of oxylipins in plants.

Diseases in crops cause significant economic losses by decreasing both the yield and quality of produce. Early and accurate diagnosis of these diseases is crucial, as it enhances the effectiveness of management strategies and helps prevent long-term damage to infected plants. The need for precise, swift, and efficient methods for diagnosing diseases and detecting pathogens remains a top priority. Conventional to Emerging Advances in Plant Disease Diagnosis and Pathogen Detection comprehensively addresses key diagnostic methods and pathogen detection techniques, from their origins to the present, guiding us toward the future of plant diagnostics. It serves as a valuable resource for academics, extension workers, and growers, offering the latest information on developments in disease diagnosis and pathogen detection.The chapters within this volume offer a comprehensive journey through the historical perspectives and groundbreaking innovations that have shaped disease diagnosis. We traverse the conventional methods that have laid the foundation for our understanding, and then embark on a journey through emerging technologies that promise to revolutionize the field. This compilation aims to connect traditional knowledge with the latest technological advancements, offering a comprehensive view of the trajectory of plant disease diagnosis. Created through collaborative efforts of field experts sharing insights and experiences, this resource is not only informative but also forward-thinking. FeaturesComprehensive coverage of both traditional and contemporary diagnostic techniques for identifying plant diseases and detecting pathogens.Detailed exploration of the latest advancements and innovations in disease diagnosis and pathogen detection, providing up-to-date knowledge.In-depth discussion of cutting-edge diagnostic strategies, including artificial intelligence, machine learning, biosensors, next-generation sequencing, point-of-care assays, and CRISPR-Cas systems.Abundantly illustrated with diagrams, flowcharts, and representations to support field identification and precise diagnosis of plant diseases.

Diseases in crops cause significant economic losses by decreasing both the yield and quality of produce. Early and accurate diagnosis of these diseases is crucial, as it enhances the effectiveness of management strategies and helps prevent long-term damage to infected plants. The need for precise, swift, and efficient methods for diagnosing diseases and detecting pathogens remains a top priority. Conventional to Emerging Advances in Plant Disease Diagnosis and Pathogen Detection comprehensively addresses key diagnostic methods and pathogen detection techniques, from their origins to the present, guiding us toward the future of plant diagnostics. It serves as a valuable resource for academics, extension workers, and growers, offering the latest information on developments in disease diagnosis and pathogen detection.The chapters within this volume offer a comprehensive journey through the historical perspectives and groundbreaking innovations that have shaped disease diagnosis. We traverse the conventional methods that have laid the foundation for our understanding, and then embark on a journey through emerging technologies that promise to revolutionize the field. This compilation aims to connect traditional knowledge with the latest technological advancements, offering a comprehensive view of the trajectory of plant disease diagnosis. Created through collaborative efforts of field experts sharing insights and experiences, this resource is not only informative but also forward-thinking. Features Comprehensive coverage of both traditional and contemporary diagnostic techniques for identifying plant diseases and detecting pathogens. Detailed exploration of the latest advancements and innovations in disease diagnosis and pathogen detection, providing up-to-date knowledge. In-depth discussion of cutting-edge diagnostic strategies, including artificial intelligence, machine learning, biosensors, next-generation sequencing, point-of-care assays, and CRISPR-Cas systems. Abundantly illustrated with diagrams, flowcharts, and representations to support field identification and precise diagnosis of plant diseases.