Efia battles Margane the Fallen Warrior. Can she overcome this powerful enemy or retreat in one piece? Xing Ling encounters Namuh. What will unfold between the two? Namuh finds himself in love with Xing Ling. Will he reveal it to her? Will Xing Yun and Fern successfully make contact with other comrades of the Land? What story awaits to be told between the merry trio consisting of Elbisivni, Tibbar and Chi Xue the Evil Destroyer?
Mathematical Visualization is a young new discipline. It offers efficient visualization tools to the classical subjects of mathematics, and applies mathematical techniques to problems in computer graphics and scientific visualization. Originally, it started in the interdisciplinary area of differential geometry, numerical mathematics, and computer graphics. In recent years, the methods developed have found important applications. The current volume is the quintessence of an international workshop in September 1997 in Berlin, focusing on recent developments in this emerging area. Experts present selected research work on new algorithms for visualization problems, describe the application and experiments in geometry, and develop new numerical or computer graphical techniques.
A pioneering book that shows how the two great themes of classic science, order and chaos, are being reconciled in a new and unexpected synthesis Order Out of Chaos is a sweeping critique of the discordant landscape of modern scientific knowledge. In this landmark book, Nobel Laureate Ilya Prigogine and acclaimed philosopher Isabelle Stengers offer an exciting and accessible account of the philosophical implications of thermodynamics. Prigogine and Stengers bring contradictory philosophies of time and chance into a novel and ambitious synthesis. Since its first publication in France in 1978, this book has sparked debate among physicists, philosophers, literary critics and historians.
This book is concerned with two intimately related topics of metaphysics: the identity of entities and the foundations of classification. What it adds to previous discussions of these topics is that it addresses them with respect to human-made entities, that is, artefacts. As the chapters in the book show, questions of identity and classification require other treatments and lead to other answers for artefacts than for natural entities. These answers are of interest to philosophers not only for their clarification of artefacts as a category of things but also for the new light they may shed on these issue with respect to to natural entities. This volume is structured in three parts. The contributions in Part I address basic ontological and metaphysical questions in relation to artefact kinds: How should we conceive of artefact kinds? Are they real kinds? How are identity conditions for artefacts and artefact kinds related? The contributions in Part II address meta-ontological questions: What, exactly, should an ontological account of artefact kinds provide us with? What scope can it aim for? Which ways of approaching the ontology of artefact kinds are there, how promising are they, and how should we assess this? In Part III, the essays offer engineering practice rather than theoretical philosophy as a point of reference. The issues addressed here include: How do engineers classify technical artefacts and on what grounds? What makes specific classes of technical artefacts candidates for ontologically real kinds, and by which criteria?
The theme ofthe conference at which the papers in this book were presented was'Systems Thinking in Europe'. Members of the United Kingdom Systems Society (UKSS) were conscious that the systems movementflourishes notonly in the UK, America and the Antipodes, but also in continental Europe, both East and West, and in the USSR, a nation increasingly being welcomed by the European comity. Membership of the UKSS had not perhaps had the opportunity, however, of hearing important new ideas from continental Europe, and this conference provided an opportunity to do so. Some interesting papers are to be found here from both the West and the East, if the editors may be forgiven for perpetuating what may be an increasingly irrelevant dichotomy. One lesson to be learned from this conference, though, is that systems thinking is truly international. This is not to say that there is one systems paradigm unifonnly applied, however. Perhaps the core of systems thinking is that one is interested in complex 'wholes' with emergent properties, to which cybernetic ideas can be applied. Examples of such systems thinking can be found in these proceedings, for example in the section entitled "Applications of Systems Thinking". Attempts to bring about change with these ideas, however, have given rise to a diversity of approaches, as is evidenced by the papers dealing with the application of methodologies in the 'hard' and 'soft' systems traditions.
For the last twenty years astronomy has been developing dramatically. Until the nineteen-fifties, telescopes, spectrometers, and photographic plates consti tuted a relatively simple set of tools which had been refined to a high degree of perfection by the joint efforts of physicists and astronomers. Indeed these tools helped at the birth of modern astrophysics: the discovery of the expan sion of the Universe. Then came radioastronomy and the advent of electronics; the last thirty years have seen the application to astrophysics of a wealth of new experimental techniques, based on the most advanced fields of physics, and a constant interchange of ideas between physicists and astronomers. Last, but not least, modern computers have sharply reduced the burden of dealing with the information painfully extracted from the skies, whether from ever scarce photons, or from the gigantic data flows provided by satellites and large telescopes. The aim of this book is not to give an extensive overview of all the tech niques currently in use in astronomy, nor to provide detailed instructions for preparing or carrying out an astronomical project. Its purpose is methodologi cal: photons are still the main carriers of information between celestial sources and the observer. How we are to collect, sample, measure, and store this infor mation is the unifying theme of the book. Rather than the diversity of tech niques appropriate for each wavelength range, we emphasize the physical and mathematical bases which are common to all wavelength regimes.
Current Ornithology publishes authoritative, up-to-date, scholarly reviews of topics selected from the full range of current research in avian biology. Topics cover the spectrum from the molecular level of organization to population biology and community ecology. The series seeks especially to review (1) fields in which an abundant recent literature will benefit from synthesis and organization, or (2) newly emerging fields that are gaining recognition as the result of recent discoveries or shifts in perspective, or (3) fields in which students of vertebrates may benefit from comparisons of birds with other classes. All chapters are invited, and authors are chosen for their leadership in the subjects under review.
Approximately fifty articles that were published in The Mathematical Intelligencer during its first eighteen years. The selection demonstrates the wide variety of attractive articles that have appeared over the years, ranging from general interest articles of a historical nature to lucid expositions of important current discoveries. Each article is introduced by the editors. "...The Mathematical Intelligencer publishes stylish, well-illustrated articles, rich in ideas and usually short on proofs. ...Many, but not all articles fall within the reach of the advanced undergraduate mathematics major. ... This book makes a nice addition to any undergraduate mathematics collection that does not already sport back issues of The Mathematical Intelligencer." D.V. Feldman, University of New Hamphire, CHOICE Reviews, June 2001.
The last few years have seen dramatic advances in the growth, fabrication and characterization of low-dimensional materials and nanostructures. Most studies of these artificially engineered materials have been driven by their potential for device applications that involve smaller and smaller physical dimensions. In particular, the dynamical properties of these materials are of fundamental interest for the devices that involve high-frequency operation and/or switching. Consequently, the different excitations, vibrational, magnetic, optical, electronic, and so on, need to be understood from the perspective of how their properties are modified in finite structures, especially on the nanometre length scale due to the presence of surfaces and interfaces.
