This edited volume is an inclusive collection of information on crop holobiome, their function and diversity, the plausible role of soil microbes in crop growth, protection from pathogens and stresses, the use of resilient microbiomes for changing climate, and the use of new technologies to study plant-insect-microbe molecular interactions in agricultural systems. Holobiomes provide information about both plants and their microbiomes, which gives a more comprehensive insight, particularly for changing climatic scenarios. By optimizing the crop holobime function crop productivity and plant health can be enhanced manifold. This book deep dives into the numerous ways in which holobiome supports the improving plant health, nutrient uptake, disease control, and stress resistance in major food crops. It helps researchers, academicians, agri-entrepreneurs, and technologists understand the structure and function of holobiomes in crop growth, health, stress tolerance under climatic changes, and holobiome diversity and evolution. The book is also helpful in designing new dimensions in the holobiome research and development of new products and technologies. This volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students.

This edited volume is an inclusive collection of information on crop holobiome, their function and diversity, the plausible role of soil microbes in crop growth, protection from pathogens and stresses, the use of resilient microbiomes for changing climate, and the use of new technologies to study plant-insect-microbe molecular interactions in agricultural systems. Holobiomes provide information about both plants and their microbiomes, which gives a more comprehensive insight, particularly for changing climatic scenarios. By optimizing the crop holobime function crop productivity and plant health can be enhanced manifold. This book deep dives into the numerous ways in which holobiome supports the improving plant health, nutrient uptake, disease control, and stress resistance in major food crops. It helps researchers, academicians, agri-entrepreneurs, and technologists understand the structure and function of holobiomes in crop growth, health, stress tolerance under climatic changes, and holobiome diversity and evolution. The book is also helpful in designing new dimensions in the holobiome research and development of new products and technologies. This volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students. /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div /divThis volume is of interest and useful to agriculture scientists, microbiologists, ecologists, and is a valuable source of reference to researchers and students./div

Plants, being sessile and autotrophic in nature, must cope with challenging environmental aberrations and therefore have evolved various responsive or defensive mechanisms including stress sensing mechanisms, antioxidant system, signaling pathways, secondary metabolites biosynthesis, and other defensive pathways among which accumulation of osmolytes or osmo-protectants is an important phenomenon. Osmolytes with organic chemical nature termed as compatible solutes are highly soluble compounds with no net charge at physiological pH and nontoxic at higher concentrations to plant cells. Compatible solutes in plants involve compounds like proline, glycine betaine, polyamines, trehalose, raffinose family oligosaccharides, fructans, gamma aminobutyric acid (GABA), and sugar alcohols playing structural, physiological, biochemical, and signaling roles during normal plant growth and development. The current and sustaining problems of climate change and increasing world population has challenged global food security. To feed more than 9 billion, the estimated population by 2050, the yield of major crops needs to be increased 1.1–1.3% per year, which is mainly restricted by the yield ceiling. A major factor limiting the crop yield is the changing global environmental conditions which includes drought, salinity and extreme temperatures and are responsible for a reduction of crop yield in almost all the crop plants. This condition may worsen with a decrease in agricultural land or the loss of potential crop yields by 70%. Therefore, it is a challenging task for agricultural scientists to develop tolerant/resistant varieties against abiotic stresses. The development of stress tolerant plant varieties through conventional breeding is very slow due to complex multigene traits. Engineering compatible solutes biosynthesis by deciphering the mechanism behind the abiotic tolerance or accumulation in plants cell is a potential emerging strategy to mitigate adverse effects of abiotic stresses and increase global crop production. However, detailed information on compatible solutes, including their sensing/signaling, biosynthesis, regulatory components, underlying biochemical mechanisms, crosstalk with other signaling pathways, and transgenic development have not been compiled into a single resource. Our book intends to fill this unmet need, with insight from recent advances in compatible solutes research on agriculturally important crop plants.

Agriculture plays a vital role supporting human life on Earth but faces significant challenges because of population growth, plant pathogens, and climate change. Genetic engineering of crops promises to increase food yields, create drought- and pest-resistant crops, and improve nutrition in the developing world. Written and edited by experts in the field, this collection from Cold Spring Harbor Perspectives in Biology examines the molecular bases of different plant characteristics and how they can be manipulated genetically using modern molecular biological techniques. The contributors review recent advances in our understanding of plant plasticity, circadian rhythms, stomatal development, inflorescence architecture, symbiotic phosphate acquisition, and specialized plant metabolism and discuss how this knowledge might be used to boost yields, improve tolerance to pathogens and environmental stress, and enhance nutritional content. Several chapters are devoted to the development of specific genetically modified plants (e.g., disease-resistant cassava and submergence-tolerant rice) and their agronomic and socioeconomic impacts. The generation of blight-resistant American chestnut trees--the first bioengineered plants developed with the goal of ecological restoration--is also described. This volume is therefore an essential read for all plant biologists, geneticists, and engineers interested in addressing agricultural as well as environmental challenges.

Nanotechnology has shown great potential in all spheres of life. With the increasing pressure to meet the food demands of rapidly increasing population, thus, novel innovation and research are required in agriculture. The principles of nanotechnology can be implemented to meet the challenges faced by agricultural demands. Major challenges include the loss of nutrients in the soil and nutrient-deficient plants, which result in a lower crop yield and quality. Subsequently, consumption of such crops leads to malnourishment in humans, especially in underprivileged and rural populations. One convenient approach to tackle nutrient deficiency in plants is via the use of fertilizers; however, this method suffers from lower uptake efficiency in plants. Another approach to combat nutrient deficiency in humans is via the use of supplements and diet modifications; however, these approaches are less affordably viable in economically challenged communities and in rural areas. Therefore, the use of nano-fertilizers to combat this problem holds the greatest potential. Additionally, nanotechnology can be used to meet other challenges in agriculture including enhancing crop yield, protection from insect pests and animals, and by use of nano-pesticides and nano-biosensors to carry out the remediation of polluted soils. The future use of nanomaterials in soil ecosystems will be influenced by their capability to interact with soil constituents and the route of nanoparticles into the environment includes both natural and anthropogenic sources. The last decade has provided increasing research on the impact and use of nanoparticles in plants, animals, microbes, and soils, and yet these studies often lacked data involving the impact of nanoparticles on biotic and abiotic stress factors. This book provides significant recent research on the use of nano-fertilizers, which can have a major impact on components of an ecosystem. This work should provide a basis to further study these potential key areas in order to achieve sustainable and safe application of nanoparticles in agriculture.

This edited book deals with latest comprehensive information on conventional and high throughput techniques and technologies that are recently used to study plant microbial interface for agricultural research and enhancing plant productivity. Plant microbiota are important for many plant growth promotion activity and agricultural productivity and are sustainable green technology for enhancing agricultural productivity under changing environment. The book covers recent information about the plant associated microbiota and their ecology. It discusses technologies to isolate and test microbiota inhabiting in different portion of plants. The book explores the conventional methods as well as the most recently recognized high throughput technologies which are important for productive agroecosystems to feed the growing global population. This book is of interest to teachers, researchers, microbiologist, plant and environmental scientist and those interested in environment stewardship around the world. Also the book serves as additional reading material for undergraduate and graduate students of agriculture, forestry, ecology, soil science, and environmental sciences and policy makers to be a useful to read.