Genetic and Genomic Resources For Cereals Improvement is the first book to bring together the latest available genetic resources and genomics to facilitate the identification of specific germplasm, trait mapping, and allele mining that are needed to more effectively develop biotic and abiotic-stress-resistant grains. As grain cereals, including rice, wheat, maize, barley, sorghum, and millets constitute the bulk of global diets, both of vegetarian and non-vegetarian, there is a greater need for further genetic improvement, breeding, and plant genetic resources to secure the future food supply. This book is an invaluable resource for researchers, crop biologists, and students working with crop development and the changes in environmental climate that have had significant impact on crop production. It includes the latest information on tactics that ensure that environmentally robust genes and crops resilient to climate change are identified and preserved. - Provides a single-volume resource on the global research work on grain cereals genetics and genomics - Presents information for effectively managing and utilizing the genetic resources of this core food supply source - Includes coverage of rice, wheat, maize, barley, sorghum, and pearl, finger and foxtail millets

Researchers in the field of ecological genomics aim to determine how a genome or a population of genomes interacts with its environment across ecological and evolutionary timescales. Ecological genomics is trans-disciplinary by nature. Ecologists have turned to genomics to be able to elucidate the mechanistic bases of the biodiversity their research tries to understand. Genomicists have turned to ecology in order to better explain the functional cellular and molecular variation they observed in their model organisms. We provide an advanced-level book that covers this recent research and proposes future development for this field. A synthesis of the field of ecological genomics emerges from this volume. Ecological Genomics covers a wide array of organisms (microbes, plants and animals) in order to be able to identify central concepts that motivate and derive from recent investigations in different branches of the tree of life. Ecological Genomics covers 3 fields of research that have most benefited from the recent technological and conceptual developments in the field of ecological genomics: the study of life-history evolution and its impact of genome architectures; the study of the genomic bases of phenotypic plasticity and the study of the genomic bases of adaptation and speciation.

This edited book provides comprehensive coverage of the recent advances in genetics and genomics of high-altitude crops (HACs). This book also assists in understanding the genomic adaptation to the environmental extremes at high altitude conditions. High-altitude crops are challenged by several high-altitude specific environmental stresses, i.e., extensive UV-B irradiation, extremely low temperature and intense hypoxia. These environmental constraints would be expected to cause genomic variations in HACs. Several studies have been conducted to dissect genetic and genomic regions in HACs to cope up with environmental stresses. However, these types of studies were not compiled or summarized anywhere. This book is of interest to teachers, researchers, climate change scientists, capacity builders and policymakers. Also, the book serves as a valuable resource for undergraduate and graduate students of agriculture, crop biotechnology, and environmental sciences. Scientists and policymakers who are working on high-altitude crops will also find this to be a useful read.

The fight against global hunger demands a fresh perspective. Lesser-known legumes, often called 'potential pulses', can play a pivotal role. These underutilized powerhouses, including adzuki bean, bambara groundnut, faba bean, cowpea, grass pea and horse gram, among others, are currently untapped resources. Their potential goes beyond their ability to thrive in harsh environments (caused by high temperature, drought, etc.) and fix nitrogen. With increased understanding of these legumes and their genetic and genomic potential, we can unlock a new world of sustainable and nutritious food sources. Focusing on the untapped genetic and genomic potential of these legumes, this book empowers researchers, breeders, and policymakers to unlock a new era of food and nutritional security. By leveraging the power of their genes, we can transform underutilized pulses into the nutritional heroes of tomorrow.

Adapting Agriculture to Climate Change is a fundamental resource for primary industry professionals, land managers, policy makers, researchers and students involved in preparing Australia’s primary industries for the challenges and opportunities of climate change. More than 30 authors have contributed to this book, which moves beyond describing the causes and consequences of climate change to providing options for people to work towards adaptation action. Climate change implications and adaptation options are given for the key Australian primary industries of horticulture, forestry, grains, rice, sugarcane, cotton, viticulture, broadacre grazing, intensive livestock industries, marine fisheries, and aquaculture and water resources. Case studies demonstrate the options for each industry. Adapting Agriculture to Climate Change summarises updated climate change scenarios for Australia with the latest climate science. It includes chapters on socio-economic and institutional considerations for adapting to climate change, greenhouse gas emissions sources and sinks, as well as risks and priorities for the future.

Genetics and Genomics of Populus provides an indepth description of the genetic and genomic tools and approaches for Populus, examines the biology that has been elucidated using genomics, and looks to the future of this unique model plant. This volume is designed to serve both experienced Populus researchers and newcomers to the field. Contributors to the volume are a blend of researchers, some who have spent most of their research career on Populus and others that have moved to Populus from other model systems. Research on Populus forms a useful complement to research on Arabidopsis. In fact, many plant species found in nature are – in terms of the life history and genetics – more similar to Populus than to Arabidopsis. Thus, the genetic and genomic strategies and tools developed by the Populus community, and showcased in this volume, will hopefully provide inspiration for researchers working in other, less well developed, systems.