Nanomaterials in the Plant-Soil Continuum explores the various nanomaterials that are impacting agriculture whether through intentional or unintentional pathways. Providing a concise outlook of NMs in soil chemistry, physics, and biology, it highlights nanomaterial transformation in soil and subsequent plant uptake. Plants may be exposed to naturally generated or artificially produced nanomaterials (ENMs). They can absorb NMs from the soil through roots or leaves but return them to the soil through litter, creating an intricate network of NMs cycling in a soil-plant continuum. Understanding this NM transformation in soil and subsequent plant uptake is integral to understanding, and protecting, an ecosystem. Nanomaterials in the Plant-Soil Continuum also discusses the translocation and biotransformation of NMs in plants and their effects on plant metabolism. Considering NMs as new and emerging agrochemicals, a detailed understanding of their role in the soil-plant continuum, ecosystem functioning, and services will also be discussed. This volume in the "Nanomaterial Plant Interactions" series highlights the recent insights into the impact, fate, and transport of NMs in the soil-plant continuum and their potential impacts on soil and plant health.
Roles of Osmolytes in Changing Environment is the only available comprehensive coverage of the recent advances in our understanding on how plants coordinate with different osmolytes, and their role in improving the tolerance of plants under stress conditions. Including insights of their effect against cold, heat, UV, submergence, wounding, extremes of temperature, drought, salinity, high metal concentrations, water logging, pollution, and nutrient deficiency stress, the book also explains the role of various osmolytes against phytopathogenic viruses, bacteria, fungi, algae, nematodes, and insects. Understanding the significance of different osmolytes for sustainable plant growth and production under diverse stress situations is increasingly important for both crop and non-crop plants. This volume presents the latest research and inspires further research toward osmolyte use in developing stress tolerance in plants. Roles of Osmolytes in Changing Environment is a valuable resource for scientists, researchers and advanced level students working in plant biology, plant physiology, plant stress physiology, plant biochemistry, botanical or crop sciences, environmental sciences, and ecological sciences.
Essential Oil Bearing Plants: Agro-techniques, Phytochemicals, and Healthcare Applications provides a unique, comprehensive view of the plants which produce these valuable products, exploring optimal plant production. Environmental factors such as genetic factors, geographical origins, cultivation locations, environmental conditions, and nutritional status influence their secondary components. Moreover, water variability, temperature, salt, and metal stresses significantly impact the growth, yield, and EO production of these plants by adjustment of anatomical, morphological, and biochemical development.This compilation increases the awareness of the essential oil plant species, their conservation, cultivation, and sustainable utilization. This deeper understanding of current science will aid in the efficient commercialization of products based on these plants, and will help identify knowledge gaps for future research.
Plant Biochemistry, Sixth Edition examines the molecular mechanisms of photosynthesis and highlights and expands this view to all facets facilitating plant life. It delivers the fundamental knowledge of plant biochemistry and explains the biological processes of life, including growth, development, senescence, and interactions between organisms and the environment, with chemical reactions. This book is suitable for advanced undergraduates and graduate students in plant physiology, plant pathology, plant cell biology, and other plant sciences, researchers in industries actively involved in agribusiness, other biotechnology enterprises, and researchers in agronomy, agriculture, plant development and related areas.Covering a broad spectrum of topics in plant biochemistry, this book explores photosynthesis, energy metabolism, carbohydrate synthesis, photorespiration, starch biosynthesis and degradation, sulfate assimilation and nitrogen and nitrate assimilation and biosynthesis of plant proteins. The new edition delineates areas of latest and future research and includes a new and cutting-edge chapter on chlorophyll degradation.
Retinoids in Development and Disease, Volume 161 in the Current Topics in Developmental Biology series focuses on the role of retinoids during development and disease. Topics covered include Retinoids, Retinol-Binding Protein 2 (RBP2), Retinol-Binding Protein 4 (RBP4): Obesity and Metabolic Disease, Early Retinoic Acid Signaling Organizes the Body Axis and Defines Domains for the Forelimb and Eye, Rethinking Retinoic Acid Self-Regulation: A Signaling Robustness Network Approach, Meiotic initiation in the fetal ovary without retinoic acid receptors: an unforeseen twist, Action of retinoic acid on progenitor cells in the testis, amongst many other topics.Additional sections cover Retinoic acid homeostasis and disease, Redefining the roles of endogenously produced retinoic acid in heart development and regeneration: lessons from genetic models, The Multifaceted Roles of Retinoids in Vision, Eye Development, and Retinal Degenerative Diseases, Essential roles for retinoid signaling in craniofacial development, and much more.
Plant Function Traits: Linking Climate and Ecosystem Functioning, part of the Plant Biology, Sustainability and Climate Change series, presents a wholistic understanding of Plant Functional Traits. As global climate change advances, natural resources are facing increasing survival challenges, hence this book directly addresses that need, exploring the morphological, physiological, and phenological properties of a plant that can be used as a proxy to understand plant environment interactions. Users will find great illustrations throughout individual chapters, along with case studies that demonstrate applications of functional traits in classifying vegetation of a region into distinct type groups as Plant Functional Types (PFTs).Additional information includes applications in the development of new generation of Dynamic Global Vegetation Model (DGVM) and an understanding of the response of vegetation to changing environments.
Patterns, Function and Application of Seed Microbiome: Bacteria, Fungi and Viruses presents the current understanding of seed and microbiota associations, emphasizing recent findings that highlight the latest insights into these interactions, and how they may ultimately influence plant ecology, health and productivity in both natural and agricultural systems. The development and dispersal of seeds and their transition to seedlings are among the most critical stages of the life cycle of plants and seed health is of crucial global importance for producing both quantity and high quality crops to feed world’s population. It is important for seeds to be produced that contain the best hybrid embryo so that it is free of diseases, includes beneficial endophytes and ensures a healthy start of a seedling. Focusing on the role of seed microbiota, their transmission and implications for producing healthier seeds as well as the relationship between the seed microbiome and primed plant resistance this book reveals the targeted use of the seed microbiome to enrich the soil biodiversity and its resilience and its resulting impact on plant health and yield. also explores the importance of nanotechnology in the development and production of crops for both improved plant production, and plant protection. It explores the different microbes that are vectored onto and within the seeds of both cultivated and non-cultivated plants, with an emphasis on the importance and roles of seed microbiomes in sustainable agriculture. It explains how to change seeds to increase microbiome vectoring; repairing damaged ones, and conserves seed microbiota. It also present seed microbiome roles for plant health and design effective microbiome engineering.
Exogenous Priming and Engineering of Plant Metabolic and Regulatory Genes: Stress Mitigation Strategies in Plants provides insights into metabolic adjustment, their regulation, and the regulatory networks involved in plants responding to stress situations. It contains comprehensive information, combining mechanistic priming and engineering approaches from the conventional to those recently developed. In addition, the book addresses seed priming, tolerance mechanisms, pre-and post-treatment, as well as sensory response, and genetic manipulation. From basic concepts to modern technologies and prevailing policies, readers will find this book useful in enhancing their understanding of the area as well as helping in identifying approaches for future research.
Non-coding RNA in Plants: Modulation and Stress Responses  is the first book to present the basics of the importance of long non-coding RNA and its potential in addressing abiotic and biotic stresses. Describing the MiRNA and small RNA and their role in plant development, this book explains the importance of long non-coding RNA in plants, including its significance in virus resistance, its transposable elements, effector trigger immunity, and fungal and bacterial resistance in plants. Non-coding RNA for Modulation and Stress Response in Plants presents the state-of-the-science from its historical foundation through application throughout the lifecycle and production of agricultural and non-agricultural plants. While various coding has been explored within animal science, plant exposition has been minimal.  This book is designed to inspire additional research and developments toward improved plant resiliency and production.
Plant Cell Biology: From Astronomy to Zoology, Third Edition connects the fundamentals of plant anatomy, plant physiology, plant growth and development, plant taxonomy, plant biochemistry, plant molecular biology, and plant cell biology. It covers all aspects of plant cell biology without emphasizing any one plant, organelle, molecule, or technique. Although most examples are biased towards plants, basic similarities between all living eukaryotic cells (animal and plant) are recognized and used to best illustrate cell processes. This is a must-have reference for scientists with a background in plant anatomy, plant physiology, plant growth and development, plant taxonomy, and more.