Plant Growth Responses For Smart Agriculture

Plant Physiology is a dynamic science which goes on adding knowledge to already characterized basic processes in plants. The past decade has witnessed an unprecedented progress in biological sciences with the advent of innovative technologies viz. recombinant DNA techniques, omics approaches and advanced phenotyping platforms. These tools have helped to redefine many of the already accepted facts of plant life. The present publication will give an insight into the lesser known signals that can influence plant growth and development. Knowledge of plant physiological processes provides the base for research in cognate disciplines such as crop improvement, crop production and crop protection. With the impetus for clean cultivation, information provided in the book can motivate researchers in developing environment-friendly and non-chemical means of improving crop production and activate the innate ability of the plant to enhance their field performance. Note: T&F does not sell or distribute the hardback in India, Pakistan, Nepal, Bhutan, Bangladesh and Sri Lanka. This title is co-published with NIPA.

Climatic conditions are key determinants of plant growth, whether at the scale of temperature regulation of the cell cycle or at the scale of the geographic limits for a particular species. The climate is changing due to human activities – particularly the emission of greenhouse gases – therefore the conditions for the establishment, growth, reproduction, survival, and distribution of plant species are changing. In contrast to animals, plants are able to cease and resume growth. This flexibility in their architecture and growth pattern is partly achieved by the action of plant hormones. Still, the role of plant growth regulators (PGRs) in agriculture is modest compared to other agrochemicals, such as fungicides, herbicides, and insecticides. Plant Growth Regulators for Climate-Smart Agriculture is an invaluable guide to the varied roles filled by PGRs in the attainment of higher-quality, better-yielding crops. Salient Features (minimum 5): Explores plant growth regulators and anthropogenic climate change. Provides new insights related to hormonal cross-talk in plant development and stress responses. Sheds new light on the role of PGRs in agriculture in the attainment of higher-quality, better-yielding crops. Delivers valuable information on physiological and molecular mechanisms linked to the role of plant growth regulators in stress tolerance. Provides valuable knowledge for students of agronomy, plant physiology, molecular biology, and environmental sciences.

Water stress and heat stress are considered to be two primary factors that limit crop production in many parts of the world. Global warming appears to be increasing the water requirements of plants. Understanding the impact of water deficit on plant physiological processes and efficient water management are of great concern in maintaining food production to meet ever increasing world food demand. The book addresses various climatic soil and plant factors that contribute to the water use efficiency in plants subjected to water stress. It covers all issues related to soil, plant and climatic factors that contribute to the crop responses to water stress. The books advances the knowledge in improving and sustaining crop yields in ever increasing unpredictable climatic fluctuations This book uses crop simulation models for response of crops to limited water under various management and climatic conditions.

Plants produce hormones naturally, which affects various processes such as gene expression and transcription levels, cellular division, and growth. When these hormones are synthesized artificially, these are called as plant growth regulators (PGRs). They can be used to positively affect plant growth. There are different types of PGRs including auxins, cytokinins, and gibberellins. that regulate the growth of a plant. They function as chemical messengers for intercellular communication. These plant regulators play a cardinal role in plant signaling networks as they are involved in the plant developmental process and a wide range of biotic and abiotic stress responses. Plant growth regulators can be extensively used within agricultural production for various purposes such as influencing reproductive development, vegetative growth and aging, along with preservation after harvesting. This book outlines the role of plant regulators in increasing agricultural productivity in detail. It presents researches and studies performed by experts across the globe. The book will prove immensely beneficial to professionals and students involved in this area of agriculture science at various levels.

Plant Growth Regulators to Manage Biotic and Abiotic Stress in Agroecosystems is a comprehensive book that explores the use of plant growth regulators (PGRs) as effective stress-reduction techniques in agricultural environments. This book investigates the role of PGRs in handling biotic and abiotic stressors, offering useful insights to agriculturalists, researchers, and students. The book provides a comprehensive overview of many PGRs, including their methods of action and impacts on plant growth and development. It describes the use of PGRs to treat plant diseases caused by pathogens such as fungi, bacteria, and viruses. The book also discusses the application of PGRs to improve plant tolerance to adverse climatic circumstances including drought, salt, and extreme temperatures. The authors also underline PGRs' sustainable and environmentally friendly character, which makes them a potential option for chemical therapies. They explore PGRs' potential to improve agricultural yield and resilience, therefore helping food security in a rapidly changing global environment. This book is an excellent resource for learning about the applications and advantages of PGRs in modern agriculture.

Rooting and plant propagation. Germination and dormancy. Flowering. Gametocides. Abscission. Fruit set and development. Plant and organ size. Axillary buds. Chemical pruning. Plant shape. Tillering. Resistance to, and control of insects and diseases. Overcoming environmental stress. Mineral uptake. Plant composition. Metabolic effects, ripening and yield increases. Modification of sexual expression. Senescence. Desiccation. Protection against herbicide damage. Increase of herbicide absorption and translocation. Toxicology, environmental and human safety.

Using accessible farming practices to meet the growing demands on agriculture is likely to result in more intense competition for natural resources, increased greenhouse gas emissions, and further deforestation and land degradation, which will in turn produce additional stress in the soil-water-plant-animal continuum. Stress refers to any unfavorable force or condition that inhibits customary functioning in plants. Concurrent manifestations of different stresses (biotic and abiotic) are very frequent in the environment of plants, which consequently reduces yield. Better understanding stress not only changes our perspective on the current environment, but can also bring a wealth of benefits, like improving sustainable agriculture and human beings’ living standards. Innovative systems are called for that protect and enhance the natural resource base, while increasing productivity via ‘holistic’ approaches, such as agroecology, agro-forestry, climate-smart agriculture and conservation agriculture, which also incorporate indigenous and traditional knowledge. The book ‘New Frontiers in Stress Management for Durable Agriculture’ details the current state of knowledge and highlights scientific advances concerning novel aspects of plant biology research on stress, biotic and abiotic stress responses, as well as emergent amelioration and reclamation technologies to restore normal functioning in agroecology.

By the year 2000, the most critical world problem--as things stand now--will be sustaining the human race. The quality and the availability of food will continue to be central to this issue. However, since the beginning of the final quarter of the twentieth century, few attempts have been made to organize and integrate information applying our knowledge of the regulation of plant growth to the enhancement of the world's yield of food, forage, fiber, and other useful plants. It is appropriate, therefore, to approach a solution to future human needs by combining an area of basic science with a defined and needed application of it. The purpose of this NATO Advanced Study Institute--Plant Regulation and World Agriculture--is reflected in the content of this volume. It covers a wide range of physiological processes including photosynthesis, translocation, seed germination, source sink relationships, water relationships, flowering, fruiting, and adaptations to stress. The identification, chemistry, and bio chemistry of naturally occurring as well as known and new synthetic plant growth regulators are discussed in relation to productivity, growth retardation, and herbicidal activity. Other topics include plant breeding and genetics, tissue culture and its use in the improvement of and the increase in plant varieties, and ecological implications in agriculture. Chapter titles in bold print in the Table of Contents designate keynote presentations for the three major subtopics in Section II.