How can nations ensure that buried nuclear waste goes undisturbed for thousands of years? The United States government tried to solve this problem with the help of experts they identified in communication, materials science, and futurism. From the perspective of a contemporary archaeologist, The Future of Nuclear Waste looks at what these experts suggested, and what the government endorsed: designs for a modern monument, an artificial ruin, a purpose-built archaeological site that would escape future exploration. One design, selected for development, argued that because specific archaeological sites and objects (among them Stonehenge, Serpent Mound, the Rosetta Stone, and rock art) made long ago have endured and are seen as significant today, contemporary engineers could build monuments that would be equally effective in conveying messages that last even longer. An alternative proposal, which government planners set aside, was rooted in the idea that universal archetypes of design arouse similar human emotions in all times and places. Both proposals used common sense, assuming that human reactions and understandings are relatively predictable. Employing an anthropology of common sense, Rosemary Joyce explores why people chosen for their expertise relied on generalizations contradicted by the actual history of preservation and interpretation of archaeological sites and the closest analogues to archetype-based designs, which are the large scale installations produced in the Land Art movement. The book reveals the underlying imagination shared by the experts, government planners, and artists, in which the American West is an empty space available for projects like these. It counters this with the dissenting voices of indigenous scholars and activists who document the presence on these nuclear landscapes of Native American people. The result is an eye-opening and unique demonstration of how a deep understanding of the remote past informs critical debates about the present.

A guide to long-term thinking: how to envision the far future of Earth. We live on a planet careening toward environmental collapse that will be largely brought about by our own actions. And yet we struggle to grasp the scale of the crisis, barely able to imagine the effects of climate change just ten years from now, let alone the multi-millennial timescales of Earth's past and future life span. In this book, Vincent Ialenti offers a guide for envisioning the planet's far future—to become, as he terms it, more skilled deep time reckoners. The challenge, he says, is to learn to inhabit a longer now. Ialenti takes on two overlapping crises: the Anthropocene, our current moment of human-caused environmental transformation; and the deflation of expertise—today's popular mockery and institutional erosion of expert authority. The second crisis, he argues, is worsening the effects of the first. Hearing out scientific experts who study a wider time span than a Facebook timeline is key to tackling our planet's emergency. Astrophysicists, geologists, historians, evolutionary biologists, climatologists, archaeologists, and others can teach us the art of long-termism. For a case study in long-term thinking, Ialenti turns to Finland's nuclear waste repository “Safety Case” experts. These scientists forecast far future glaciations, climate changes, earthquakes, and more, over the coming tens of thousands—or even hundreds of thousands or millions—of years. They are not pop culture “futurists” but data-driven, disciplined technical experts, using the power of patterns to construct detailed scenarios and quantitative models of the far future. This is the kind of time literacy we need if we are to survive the Anthropocene.

This open access book discusses the eroding economics of nuclear power for electricity generation as well as technical, legal, and political acceptance issues. The use of nuclear power for electricity generation is still a heavily disputed issue. Aside from technical risks, safety issues, and the unsolved problem of nuclear waste disposal, the economic performance is currently a major barrier. In recent years, the costs have skyrocketed especially in the European countries and North America. At the same time, the costs of alternatives such as photovoltaics and wind power have significantly decreased. Contents History and Current Status of the World Nuclear Industry The Dramatic Decrease of the Economics of Nuclear Power Nuclear Policy in the EU The Legacy of Csernobyl and Fukushima Nuclear Waste and Decommissioning of Nuclear Power Plants Alternatives: Heading Towards Sustainable Electricity Systems Target Groups Researchers and students in the fields of political, economic and technical sciences Energy (policy) experts, nuclear energy experts and practitioners, economists, engineers, consultants, civil society organizations The Editors Prof. Dr. Reinhard Haas is University Professor of energy economics at the Institute of Energy Systems and Electric Drives at Technische Universität Wien, Austria. PD Dr. Lutz Mez is Associate Professor at the Department for Political and Social Sciences of Freie Universität Berlin, Germany. PD Dr. Amela Ajanovic is a senior researcher and lecturer at the Institute of Energy Systems and Electrical Drives at Technische Universität Wien, Austria.--

Time is both the ally of high-level nuclear waste (HLNW) managers and the enemy. It is the ally because the radioactivity in elements and isotopes decreases with age, making the waste progressively less dangerous to human health and safety and the environment. This rate of radioactive decline varies, in some cases diminishing by half (the half life) in seconds, minutes, hours, days, weeks, months, or years. In other cases the decay process takes centuries or hundreds of thousands of years before the wastes are safe for human contact. The problem as now conceptualized for HLNW managers is simple to state if not easy to achieve. The HLNW needs to be secured in some fashion until it decays, by virtue of its physical nature, to safe levels. Another possible future solution, not currently available, might be to change the ~~ructure of HLNW through high-technology processing and thus decompose the waste into units with different and less lengthy radioactivity. Learning whether this processing is a future option will require patience and generous amounts of time for research.

This title, first published in 1987, examines the topic of nuclear waste management, and the way in which the public reacts to this issue. Part 1 explores the sources of public unease, such as the way in which nuclear waste had failed to be properly contained in the past. Part 2 looks at the search for a waste policy and the introduction of The Nuclear Waste Policy Act. Part 3 examines the waste problem from the standpoint of it being an international issue, and finally, Part 4 looks to the future and the lessons that we can learn from past nuclear waste management failures. This book will be of interest to students of environmental management.

"How can sites of waste disposal be marked to prevent contamination in the future? The United States government addressed this challenge in planning for nuclear waste repositories. Consulting with experts in imagining future scenarios, in language and communication, and in anthropology, the Department of Energy sought to develop plans that would satisfy demands from the Environmental Protection Agency for a marker system that would be effective long into the future. Expert consultants proposed two very different designs: one based on archaeological sites recognized as cultural heritage monuments; the other proposing that certain forms invoke universal feelings. The Department of Energy opted for a design based on archaeological ruins, cited as proof human-made markers could last and communicate warnings for thousands of years. This book explores the common sense assumptions the experts made about their archaeological models, and shows how they are contradicted by what archaeologists understand about these places and things. The book alternates between discussions of archaeological marker designs and reflections on the alternative proposal based on archetypes intended to arouse universal responses. Recognizing these archetype designs as similar in scale and form to Land Art projects, it compares the way government experts proposed their designs would work with views of modern artists and critics. Drawing on views of indigenous people who disproportionately are asked to accommodate such projects, the book explores concessions within the project that only oral transmission is likely to ensure such sites remain identifiable long into the future"--

This volume presents a compilation of important information on the full range of radioactive waste forms that have been developed, or at least suggested, for the incorporation of high-level nuclear waste. Many of the results were published in the ''gray literature'' of final reports of national laboratories or in various, generally less available, proceedings volumes. This is the first publication to draw information on nuclear waste forms for high-level wastes together into a single volume. Although borosilicate glass has become the standard waste form, additional research in this compound is still necessary. With improved technology (particularly processing technologies) and with a more detailed knowledge of repository conditions, glasses and second generation waste forms with improved performance properties can be developed. Sustained research programs on nuclear waste form development will yield results that can only add to public confidence and the final, safe disposal of nuclear waste. The aim of this volume is to provide a 'spring board' for these future research efforts. A detailed presentation is given on the properties and performance of non-crystalline waste forms (borosilicate glass, sintered glass, and lead-iron phosphate glass), and crystalline waste forms (Synroc, tailored ceramics, TiO 2 - ceramic matrix, glass-ceramics and FUETAP concrete). A chapter on Novel Waste Forms reviews a number of methods that warrant further development because of their potential superior performance and unique applications. The final chapter includes a tabulated comparison of important waste form properties and an extended discussion on the corrosion process and radiation damage effects for each waste form. Of particular interest is a performance assessment of nuclear waste borosilicate glass and the crystalline ceramic Synroc. This is the first detailed attempt to compare these two important waste forms on the basis of their materials properties. The discussion emphasizes the difficulties in making such a comparison and details the types of data that are required. Each chapter has been written by an expert and includes a current compilation of waste form properties with an extensive list of references. This volume will provide a stimulus for future research as well as useful reference material for scientists working in the field of nuclear waste disposal and materials science.