In the wake of the Fukushima Daiichi nuclear power plant accident, questions are being raised about the future of the uranium market, including as regards the number of reactors expected to be built in the coming years, the amount of uranium required to meet forward demand, the adequacy of identified uranium resources to meet that demand and the ability of the sector to meet reactor requirements in a challenging investment climate. This 24th edition of the "Red Book", a recognised world reference on uranium jointly prepared by the OECD Nuclear Energy Agency and the International Atomic Energy Agency, provides analyses and information from 42 producing and consuming countries in order to address these and other questions. It offers a comprehensive review of world uranium supply and demand as well as data on global uranium exploration, resources, production and reactor-related requirements. It also provides substantive new information on established uranium production centres around the world and in countries developing production centres for the first time. Projections of nuclear generating capacity and reactor-related requirements through 2035, incorporating policy changes following the Fukushima accident, are also featured, along with an analysis of long-term uranium supply and demand issues

This book provides a concise but rigorous appraisal about the future of nuclear power and the presumed nuclear renaissance. It does so by assessing the technical, economic, environmental, political, and social risks related to all aspects of the nuclear fuel cycle, from uranium mills and mines to nuclear reactors and spent fuel storage facilities. In each case, the book argues that the costs of nuclear power significantly outweigh its benefits. It concludes by calling for investments in renewable energy and energy efficiency as a better path towards an affordable, secure, and socially acceptable future.The prospect of a global nuclear renaissance could change the way that energy is produced and used the world over. Sovacool takes a hard look at who would benefit — mostly energy companies and manufacturers — and who would suffer — mostly taxpayers, those living near nuclear facilities, and electricity customers. This book is a must-read for anyone even remotely concerned about a sustainable energy future, and also for those with a specific interest in modern nuclear power plants.

The U.S. Department of Energy, Energy Information Administration (EIA) joined with the U.S. Department of the Interior, U.S. Geological Survey (USGS) to analyze the world uranium supply and demand balance. To evaluate short- term primary supply (0-15 years), the analysis focused on Reasonably Assured Resources (RAR), which are resources pro- jected with a high degree of geologic assurance and considered to be economically feasible to mine. Such resources include uranium resources from mines currently in production as well as resources that are in the stages of feasibility or of being permit- ted. Sources of secondary supply for uranium, such as stockpiles and reprocessed fuel, were also examined. To evaluate long- term primary supply, estimates of uranium from unconventional and from undiscovered resources were analyzed.

Item #176: A fire drill. No, not an exercise in which occupants of a building practice leaving the building safely. A drill which safely emits a bit of fire, the approximate shape and size of a drill bit. Item #74: Enter a lecture class in street clothes. Receive loud phone call. Shout “I NEED TO GO, THE CITY NEEDS ME!” Remove street clothes to reveal superhero apparel. Run out for the good of the land. Item #293: Hypnotizing a chicken seems easy, but if the Wikipedia article on the practice is to be believed, debate on the optimal method is heated. Do some trials on a real chicken and submit a report . . . for science of course. Item #234: A walking, working, people-powered but preferably wind-powered Strandbeest. Item #188: Fattest cat. Points per pound. The University of Chicago’s annual Scavenger Hunt (or “Scav”) is one of the most storied college traditions in America. Every year, teams of hundreds of competitors scramble over four days to complete roughly 350 challenges. The tasks range from moments of silliness to 1,000-mile road trips, and they call on participants to fully embrace the absurd. For students it is a rite of passage, and for the surrounding community it is a chance to glimpse the lighter side of a notoriously serious university. We Made Uranium! shares the stories behind Scav, told by participants and judges from the hunt’s more than thirty-year history. The twenty-three essays range from the shockingly successful (a genuine, if minuscule, nuclear reaction created in a dorm room) to the endearing failures (it’s hard to build a carwash for a train), and all the chicken hypnotisms and permanent tattoos in between. Taken together, they show how a scavenger hunt once meant for blowing off steam before finals has grown into one of the most outrageous annual traditions at any university. The tales told here are absurd, uplifting, hilarious, and thought-provoking—and they are all one hundred percent true.

The book presents the results from the Uranium Mining and Hydrogeology Conference (UMH VI) held in September 2011, in Freiberg, Germany. The following subjects are emphasised: Uranium Mining, Phosphate Mining and Uranium recovery. Cleaning up technologies for water and soil. Analysis and sensor for Uranium and Radon and Modelling.

The decay product of the medical isotope molybdenum-99 (Mo-99), technetium-99m (Tc-99m), and associated medical isotopes iodine-131 (I-131) and xenon-133 (Xe-133) are used worldwide for medical diagnostic imaging or therapy. The United States consumes about half of the world's supply of Mo-99, but there has been no domestic (i.e., U.S.-based) production of this isotope since the late 1980s. The United States imports Mo-99 for domestic use from Australia, Canada, Europe, and South Africa. Mo-99 and Tc-99m cannot be stockpiled for use because of their short half-lives. Consequently, they must be routinely produced and delivered to medical imaging centers. Almost all Mo-99 for medical use is produced by irradiating highly enriched uranium (HEU) targets in research reactors, several of which are over 50 years old and are approaching the end of their operating lives. Unanticipated and extended shutdowns of some of these old reactors have resulted in severe Mo-99 supply shortages in the United States and other countries. Some of these shortages have disrupted the delivery of medical care. Molybdenum-99 for Medical Imaging examines the production and utilization of Mo-99 and associated medical isotopes, and provides recommendations for medical use.