This holistic guide brings rabbit production science and medicine together. It considers the full spectrum of commercial rabbit husbandry, including intensive, semi-intensive, and organic systems for meat, fur and leather. Drawn from an international authorship, the book addresses practical and fundamental topics. In comprehensive sections, readers will find easy-to-read chapters on:

This book provides guidelines for using a new approach of resampling the Cs-137 radionuclide tracer which is used to estimate soil erosion rates. The Cs-137 resampling approach will improve significantly the use of the Cs-137 method for assessment of soil erosion, because resampling the radionuclide repeatedly (at least two times, but more sampling campaigns are possible) allows to avoid several methodological difficulties associated with Cs-137 method, namely the problems with small-scale spatial heterogeneity, the question of representativeness of reference site, reference samples, and inappropriate time extent of evaluated period. All these methodological problems are very important for reliability and accuracy of erosion rates estimated by Cs-137 method. If using single sampling approach, the small-scale spatial heterogeneity can be overcome by high number of sampling points, but this is time and labour demanding solution increasing the expenses of the erosion research.

Land deterioration, drought, desertification, and water resources shrinkage threaten natural resources, negatively impacting environmental, economic, and political stability. The increasing occurrence of climate change (extremes) impacts land degradation processes, soil erosion by water and wind, and salinization. The researchers have invested several years of scientific research in natural resources deterioration, including soil degradation and erosion, land degradation, desertification, and climate changes, which are interesting enough. However, the link between science and policymaking appears to be less active as serious actions do not take fast. The eighteen chapters of this book focus more on topics related to natural resources deterioration, such as land degradation, desertification, drought, climate change, and analysis of numerous case studies.

This book addressed the pressing challenges of climate change, land scarcity, and food security, offering a comprehensive synthesis of research on using, managing, and reclaiming marginal lands in Africa. Unfavourable climatic conditions and rapid population growth intensify competition for land, putting pressure on traditional agricultural soils thus necessitating a transition towards underutilized marginal lands. Reclaiming these damaged and undervalued areas through various technologies presents a promising path not only to food independence but also to second-generation biofuel feedstock production, utilizing excess biomass from these revived lands. While recent years have seen increased focus on restoring degraded lands, a crucial gap remains i.e. a unified knowledge base detailing the efficacy of various reclamation technologies. This book fills that void, empowering farmers and policymakers with the insights they need to make informed decisions, mobilize resources effectively, and ultimately help Africa meet its projected 60% food demand increase.

This book focuses on challenges that have arisen because of trash discharges and their potential causes and provides long-term sustainable solutions. Globally, the COVID-19 pandemic has caused immense devastation, leading to numerous fatalities as well as substantial economic losses and health issues. With the rise in COVID-19 cases, the amount of biomedical waste has multiplied, exposing more people to the epidemic. For developing countries, waste management is already a problem, and the waste generated during this pandemic situation has made things worse. If improper waste management techniques are not changed, the world will face a new crisis that could be referred to as a "garbage crisis." The increased quantity of COVID-19-associated waste (CAW) and their presence in the environment make them more vulnerable, potentially increasing the danger of food chain contamination.

This book discusses how plant functional trait selection can help researchers to understand the plant-environment relationship, identify desirable traits, modulate plant resilience according to the changing climate, optimize resource use efficiency, and enhance genetic improvement. The plant functional traits-based approach provides a framework for improving crop productivity in agricultural systems with high precision. It enables researchers to develop crop varieties with desirable traits by focusing on the fundamental characteristics influencing growth, development, and response. Climate change and environmental variability pose significant agricultural challenges. The plant functional traits-based approach can help address these challenges by selecting and breeding traits that enhance resilience and adaptability capacity of the plant. This approach also contributes to sustainable agriculture, by focusing on increased food production, and resilience in extreme environmental conditions.

​Like many sectors, agriculture is experiencing a continuous digitalization, i.e. an increase in data-driven technologies used. In contrast to companies of other critical infrastructures, a typical farm is comparatively small and often runs as a family business. Accordingly, the demands on farming technology, its implementation, and regulations are different in many terms. Currently, a promising technological trend of agriculture is smart farming, that incorporates more precise cultivation with less manual effort. But such new developments usually lack an assessment about its impact on the sector's resilience and dependencies on other infrastructures. It remains unclear, how digitalization impacts the resilience of food production and food safety. Therefore, it is not well researched which technological developments may lead to undesired effects in the future. How modern systems should be designed to allow for both, positive impacts on efficiency, and prevention of negative effects interms of reduced resilience capacities, is also not answered by current literature. The aim of the work is to close this research gap in the interplay between agriculture, digitalization, and resilience.

The objective of this book is to present protocols, methodologies, and standard operating procedures (SOPs) used for the identification of sources, transport, and fate of agro-contaminants and illustrate them with several case studies of successful applications. The Soil and Water Management & Crop Nutrition (SWMCN) Subprogramme of the Joint Food and Agriculture Organization (FAO)/International Atomic Energy Agency (IAEA) Centre of Nuclear Techniques in Food and Agriculture, through a Coordinated Research Project (CRP) in partnership with national and international research institutes, developed and evaluated a set of analytical techniques (the toolbox). The toolbox integrates multiple isotope tracers that provide information on the origins and pathways of multiple pollutants through agro-ecosystems, thereby providing more accurate guidance on mitigations. However, land management strategies to address and control the transport of pollutants from soil to water bodies remain the shared responsibility of farm and aquaculture operators, agro-chemical manufacturers, and policymakers in food and agriculture as well as the mining sectors. This book is structured into eight chapters covering (i) an overview of the book’s content, (ii) guidelines for designing water sampling programmes, (iii) the use of mixing models applicable to tracers for water pollution studies, (iv) compound-specific isotope analyses to investigate pesticide degradation in agricultural catchments, (v) the use of stable oxygen isotope composition of phosphate to investigate phosphorous in soil-plant continuum, (vi) the use of stable sulphur isotopes to disentangle agro-pollutants from other contaminants, (vii) nuclear tools used in sediment source apportionment, and (viii) the conclusions and perspectives forward. The book offers up-to-date information, and we hope it is a great source of information for students, researchers, and policymakers. The SWMCN subprogramme thanks all the contributors involved in the preparation of this publication.

This 2-volume book is an up-to-date overview of current progress in Arbuscular Mycorrhizal Fungal (AMF) technique development, inoculum production and its quality regulations, application in agriculture, horticulture, agroforestry, and other ecosystems, along with nutrient management for sustainable food production. It contains the current advancement in basic and molecular techniques, challenges, opportunities, and determinates of various AMF production methods and major tools and techniques for their field application. Production and development of AMF is rapidly evolving and requires a multidisciplinary approach with up-to-date knowledge to broaden and strengthen the perspective of researchers involved in this domain. The volumes offer new insight and cutting-edge information for novices and experts such as students, academicians, researchers, environmentalists, industrialists, and others interested in mycorrhiza. The first volume covers some basic isolation techniques, enumeration,and molecular studies with recent advances in various in-vitro and in-vivo production technologies, regulatory issues, and application methodologies for field inoculation. It also discusses AMF application in various agroecosystems for sustainable agricultural production and a healthier planet.

This volume provides general and new information about the physiology of postharvest losses and the latest technological developments in postharvest systems. The book provides up-to-date information about the postharvest physiology and technology of fruits and vegetables for students, teachers, professors, scientists, farmers, food packers and sellers, and entrepreneurs engaged in the fresh food preservation industry.