Temporality has been a central issue in phenomenology since its inception. Husserl's groundbreaking investigations of the consciousness of internal time early in the century inaugurated a phenomenological tradition enriched by such figures as Martin Heidegger, Jean-Paul Sartre, Maurice Merleau-Ponty, and Eugen Fink. The authors of the essays collected in this volume continue that tradition, challenging, expanding, and deepening it. Many of the essays explore topics involving the deepest levels of temporal constitution, including the relationship of temporality to the self and to the world; the ways in which temporalizing consciousness and what it temporalizes present themselves; and the roles and nature of present, past, and future. Other essays develop original positions concerning history, tradition, narrative, the time of generations, the coherence of one's life, and the place of time in the visual arts. In every instance, the authors show how invaluable phenomenology is for the investigation of time's many faces.

The contributors of this volume examine beauty and aesthetic theory in nature and human society, in the humanities and science.

In The Many Faces of Science, Leslie Stevenson and Henry Byerly masterfully, and painlessly, provide the information and the philosophical reflections students need to gain an understanding of the institution of modern science and its increasing impact on our lives and cultures. In this second edition, the authors update topics they explored in the first edition, and present new case studies on subjects such as HIV and AIDS, women in science, and work done in psychology and the social sciences. The authors also extend their discussion of science and values, in addition to revising their study of science and technology, to emphasize changes in scientific practice today. Accessible and rich with case studies, anecdotes, personal asides, and keen insight, The Many Faces of Science is the ideal interdisciplinary introduction for nonscientists and scientists in courses on science studies, science and society, and science and human values. It will also prove useful as supplementary reading in courses on science and philosophy, sociology, and political science.

This book provides an introduction to the mathematical aspects of Euler's elastic theory and its application. The approach is rigorous, as well as visually depicted, and can be easily digested. The first few chapters introduce the needed mathematical concepts from geometry and variational calculus. The formal definitions and proofs are always illustrated through complete derivations and concrete examples. In this way, the reader becomes acquainted with Cassinian ovals, Sturmian spirals, co-Lemniscates, the nodary and the undulary, Delaunay surfaces, and their generalizations. The remaining chapters discuss the modeling of membranes, mylar balloons, rotating liquid drops, Hele-Shaw cells, nerve fibers, Cole's experiments, and membrane fusion. The book is geared towards applied mathematicians, physicists and engineers interested in Elastica Theory and its applications.

This collection of original papers by an international group of distinguished philosophers of science impressively demonstrates the links among the philosophic points of view, areas of focus, and methods of treatment used in examining the many facets of scientific inquiry. It will be an indispensable collection for philosophers of science and scientists of various disciplines, including physicists, neuroscientists, and psychologists.

This book is a comprehensive reference on differential geometry. It shows that Maxwell, Dirac and Einstein fields, which were originally considered objects of a very different mathematical nature, have representatives as objects of the same mathematical nature. The book also analyzes some foundational issues of relativistic field theories. All calculation procedures are illustrated by many exercises that are solved in detail.