Examine important global environmental changes that will affect the future of agriculture! Here is a complete introduction to the influence of global environmental changes on the structure, function, and harvestable yield of major field crops. It gives you an in-depth look at the effects of climate change, air pollution, and soil salinization. The book provides an introduction to the ramifications, both positive and negative, of these ongoing environmental changes for present and future crop production and food supply. Crops and Environmental Change: An Introduction to Effects of Global Warming, Increasing Atmospheric CO2 and O3 Concentrations, and Soil Salinization on Crop Physiology and Yield integrates a discussion of the physiological effects of environmental change with background information on basic topics in plant physiology. Numerous charts, tables, and figures are included to assist in understanding the empirical effects of the environment on crops. Topics addressed in Crops and Environmental Change include: the effects of increasing global atmospheric carbon dioxide concentration climatic changes associated with increasing atmospheric concentrations of carbon dioxide and other greenhouse gases the effects of increasing ozone concentrations in the lower atmosphere across large crop-growing regions soil salinization in areas of irrigated crops the causes and trajectories of ongoing environmental changes the implications of environmental changes on the future of crop production and much more! The information in this book is appropriate for newcomers to the field as well as for seasoned professionals. It is written in language accessible to those new to the area and serves as a good jumping off point for more in-depth study. And since it is organized like a traditional plant physiology textbook, it is appropriate for students in the field. For experienced professionals, it acts as a handy refresher/reference tool on the basics of plant physiology. Crops and Environmental Change is a valuable resource for anyone concerned with the future of agriculture. Make it part of your professional/teaching collection today!
Respiration is a large and important component of the carbon economy of crops. There are already several good books dealing with the biochemistry and physiol ogy of plant respiration, but there are none I know of that are devoted to the rela tionship between respiration and crop productivity, although this relationship is more and more frequently being studied with both experiment and simulation. Crop physiology books do cover respiration, of course, but the treatment is limited. The purpose of the present book is to fill this void in the literature. The approach taken here is to use the popular two-component functional model whereby respiration is divided between growth and maintenance components. Mter thoroughly reviewing the literature, I came to the conclusion that at present this is the most useful means of considering respiration as a quantitative compo nent of a crop's carbon economy. This functional distinction is used as the frame work for describing respiration and assessing its role in crop productivity. Discussions and critiques of the biochemistry and physiology of respiration serve primarily as a means of more fully understanding and describing the functional approach to studying crop respiration. It is assumed that the reader of this book is familiar with the fundamentals of plant physiology and biochemistry. The research worker in crop physiology should find this an up-to-date summary of crop respiration and the functional model of respiration. This book is not, however, a simple review of existing data.
In this book, the author tells the story of some of the most remarkable heavenly bodies known - the solar system's sixty-five moons - and the extraordinary people who have explored them. -- Description from back cover.
It's time to design the next iteration of higher education. There is no question that higher education faces significant challenges. Most of today's universities aren't prepared to tackle issues like demographic change, the continued defunding of public education, cost pressures, and the opportunities and challenges of educational technologies. Then, of course, there is the shock of the COVID-19 pandemic, which will reverberate for years and may very well usher higher education into an era of significant structural change. Some critics argue that a premium should be placed on change functions—that is to say, on creativity, innovation, organizational learning, and change management. Yet few institutions of higher education have functions focused on thoughtful, iterative problem-solving and opportunity identification. The authors of Design for Change in Higher Education argue that we must imagine and actively make our way to new institutional forms. They assert that design—a practical art that is conceptually rich and visible in its concreteness—must become a core internal competency of the university. They propose one grounded in the practical experiences of a specific educational design organization: Michigan State University's Hub for Innovation in Learning and Technology, which all three authors have helped to run. The Hub was created to address issues of participation, impact, and scale in moving learning innovations from the individual to the collective and from the classroom to the institution. Framing each chapter around a case study of design practice in higher education, the book uses that case study as the foundation on which to build design theory for higher education. It is complemented by an online playbook featuring tactics that can be used and adapted by others interested in facilitating their own design work. Touching on learning experience design (LXD) as an increasingly critical practice, the authors also develop a constructivist view of designing conversations. A playbook that grounds theory in practice, Design for Change in Higher Education is aimed at faculty, staff, and students engaged in the important work of imagining new forms of education.
Weed Biology and Climate Change will provide a synthesis of what is known regarding the probable impact of environmental change on weed biology. Chapters will look at impacts of weed biology on agriculture, invasive species that limit ecological diversity and weeds that serve as health risks. In addition it looks at current weed management strategies and how they will be affected by global climate change. The book covers an increasingly important area in plant science, crop science and ecological research, and will be essential reading for anyone exploring the biological impacts of a changing environment.
Respiration is a large and important component of the carbon economy of crops. There are already several good books dealing with the biochemistry and physiol ogy of plant respiration, but there are none I know of that are devoted to the rela tionship between respiration and crop productivity, although this relationship is more and more frequently being studied with both experiment and simulation. Crop physiology books do cover respiration, of course, but the treatment is limited. The purpose of the present book is to fill this void in the literature. The approach taken here is to use the popular two-component functional model whereby respiration is divided between growth and maintenance components. Mter thoroughly reviewing the literature, I came to the conclusion that at present this is the most useful means of considering respiration as a quantitative compo nent of a crop's carbon economy. This functional distinction is used as the frame work for describing respiration and assessing its role in crop productivity. Discussions and critiques of the biochemistry and physiology of respiration serve primarily as a means of more fully understanding and describing the functional approach to studying crop respiration. It is assumed that the reader of this book is familiar with the fundamentals of plant physiology and biochemistry. The research worker in crop physiology should find this an up-to-date summary of crop respiration and the functional model of respiration. This book is not, however, a simple review of existing data.
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