This book provides a historical narrative to tell the story of interwar German reparations the debates, controversies and diplomacy surrounding the issue from the 1919 Paris peace conference to the abandonment of reparations at the Lausanne Conference in 1932.

This handbook offers a comprehensive transdisciplinary examination of the research and practices that constitute the emerging research agenda in energy democracy. With protests over fossil fuels and controversies over nuclear and renewable energy technologies, democratic ideals have contributed to an emerging social movement. Energy democracy captures this movement and addresses the issues of energy access, ownership, and participation at a time when there are expanding social, political, environmental, and economic demands on energy systems. This volume defines energy democracy as both a social movement and an academic area of study and examines it through a social science and humanities lens, explaining key concepts and reflecting state-of-the-art research. The collection is comprised of six parts: 1 Scalar Dimensions of Power and Governance in Energy Democracy 2 Discourses of Energy Democracy 3 Grassroots and Critical Modes of Action 4 Democratic and Participatory Principles 5 Energy Resource Tensions 6 Energy Democracies in Practice The vision of this handbook is explicitly transdisciplinary and global, including contributions from interdisciplinary international scholars and practitioners. The Routledge Handbook of Energy Democracy will be the premier source for all students and researchers interested in the field of energy, including policy, politics, transitions, access, justice, and public participation.

Mathematical models have been very successful in the study of the physical world. Galilei and Newton introduced point particles moving without friction under the action of simple forces as the basis for the description of concrete motions like the ones of the planets. This approach was sustained by appro priate mathematical methods, namely infinitesimal calculus, which was being developed at that time. In this way classical analytical mechanics was able to establish some general results, gaining insight through explicit solution of some simple cases and developing various methods of approximation for handling more complicated ones. Special relativity theory can be seen as an extension of this kind of modelling. In the study of electromagnetic phenomena and in general relativity another mathematical model is used, in which the concept of classical field plays the fundamental role. The equations of motion here are partial differential equations, and the methods of study used involve further developments of classical analysis. These models are deterministic in nature. However it was realized already in the second half of last century, through the work of Maxwell, Boltzmann, Gibbs and others, that in the discussion of systems involving a great number of particles, the deterministic description is not by itself of great help, in particu lar a suitable "weighting" of all possible initial conditions should be considered."

I Am 愛

Pronounced: "I; ai," as in "I," which means "Love." Through this book, you will learn a poetic way of how we are made in the image and likeness of Love. Take a journey reconnecting to your heart, to 愛, to Love, to "I."

The Office of Scientific & Technical Information (OSTI), is a part of the U.S. Department of Energy (DOE) that houses research and development results from projects funded by the DOE. The information is generally an article, technical document, conference paper or dissertation. This is one of those publications.

This book serves as the primary reference for precision medicine in the fields of pulmonary, critical care and sleep medicine by documenting principles written by experts in several aspects of precision medicine. It combines fundamental concepts of the field with state-of-the-art studies and how they translate into individual preventive, diagnostic and therapeutic plans. Precision medicine is focused on the integration of individual variability with disease prevention and treatment principles derived from population studies. This concept has risen to prominence in recent years in parallel with advances in genetics, molecular diagnostics and novel target-specific therapies. This fundamental shift in the approach to treatment has broad implications in how we prevent, diagnose and treat disease. Describing key concepts of precision medicine and relating these to pulmonary, critical care and sleep disorders is essential to educate relevant stakeholders and increase the impact of pulmonary precision medicine. The book is organized into seven sections: introduction; genetics; biomarkers; precise phenotyping; mobile health, wearables and telemedicine; precision therapeutics; and enabling widespread adoption of precision medicine. The chapters are organized with an introduction to the specific theme, followed by its basic concepts. They then delve into how these basic concepts relate to the larger theme of precision medicine, new precision medicine approaches to dealing with these problems, and key takeaway points. Liberally illustrated with images, figures, and tables, the text is thorough and intuitive for clinicians and researchers to learn the processes and applications of precision medicine. This is an ideal guide for clinicians to learn new precision medicine concepts in the fields of genetics, genomics, mobile health, and how they apply to their practice and their patients, as well as researchers seeking a basic understanding of precision medicine to assist in designing future research studies.