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Produces original insights into the nature of the contemporary urban, and uses these insights as a basis for the design of the contemporary city. This book presents projects in full-colour, showing how some of the ideas and concerns about space, time, hybridity and form translate into real work in the Spacelab design studio.
Physiognomy and ekphrasis are two of the most important modes of description in antiquity and represent the necessary precursors of scientific description. The primary way of divining the characteristics and fate of an individual, whether inborn or acquired, was to observe the patient’s external characteristics and behaviour. This volume focuses initially on two types of descriptive literature in Mesopotamia: physiognomic omens and what we might call ekphrastic description. These modalities are traced through ancient India, Ugaritic and the Hebrew Bible, before arriving at the physiognomic features of famous historical figures such as Themistocles, Socrates or Augustus in the Graeco-Roman world, where physiognomic discussions become intertwined with typological analyses of human characters. The Arabic compendial culture absorbed and remade these different physiognomic and ekphrastic traditions, incorporating both Mesopotamian links between physiognomy and medicine and the interest in characterological ‘types’ that had emerged in the Hellenistic period. This volume offer the first wide-ranging picture of these modalities of description in antiquity.
Knowledge of the microscopic structure of biological systems is the key to understanding their physiological properties. Most of what we now know about this subject has been generated by techniques that produce images of the materials of interest, one way or another, and there is every reason to believe that the impact of these techniques on the biological sciences will be every bit as important in the future as they are today. Thus the 21st century biologist needs to understand how microscopic imaging techniques work, as it is likely that sooner or later he or she will have to use one or another of them, or will otherwise become dependent on the information that they provide. The objective of this textbook is to introduce its readers to the many techniques now available for imaging biological materials, e.g. crystallography, optical microscopy and electron microscopy, at a level that will enable them to use them effectively to do research. Since all of these experimental methods are best understood in terms of Fourier transformations, this book explains the relevant concepts from this branch of mathematics, and then illustrates their elegance and power by applying them to each of the techniques presented. The book is derived from a one-term course in structural biology that the author gave for many years at Yale. It is intended for students interested either in doing structural research themselves, or in exploiting structural information produced by others. Over the years, the course was taken successfully by advanced undergraduates and by graduate students. Scientists interested in entering the structural biology field later in their careers may also find it useful.
A tour through a world too small to see with a microscope: air, ice, diamonds, aspirin, fuel cells, and other structures viewed and described in the scale of nanometers. The world is made up of structures too small to see with the naked eye, too small to see even with an electron microscope. Einstein established the reality of atoms and molecules in the early 1900s. How can we see a world measured in fractions of nanometers? (Most atoms are less than one nanometer, less than one-billionth of a meter, in diameter.) This beautiful and fascinating book gives us a tour of the invisible nanoscale world. It offers many vivid color illustrations of atomic structures, each accompanied by a short, engagingly written essay. The structures advance from the simple (air, ice) to the complex (supercapacitator, rare earth magnet). Each subject was chosen not in search of comprehensiveness but because it illustrates how atomic structure creates a property (such as hardness, color, or toxicity), or because it has a great story, or simply because it is beautiful. Thus we learn how diamonds ride volcanoes to the earth's surface (if they came up more slowly, they'd be graphite, as in pencils); what form of carbon is named after Buckminster Fuller; who won in the x-ray vs. mineralogy professor smackdown; how a fuel cell works; when we use spinodal decomposition in our daily lives (it involves hot water and a package of Jell-O), and much more. The amazing color illustrations by Stephen Deffeyes are based on data from x-ray diffraction (a method used in crystallography). They are not just pretty pictures but visualizations of scientific data derived directly from those data. Together with Kenneth Deffeyes's witty commentary, they offer a vivid demonstration of the diversity and beauty found at the nanometer scale.
A dazzling look at the artists working on the frontiers of science. In recent decades, an exciting new art movement has emerged in which artists utilize and illuminate the latest advances in science. Some of their provocative creations—a live rabbit implanted with the fluorescent gene of a jellyfish, a gigantic glass-and-chrome sculpture of the Big Bang (pictured on the cover)—can be seen in traditional art museums and magazines, while others are being made by leading designers at Pixar, Google’s Creative Lab, and the MIT Media Lab. In Colliding Worlds, Arthur I. Miller takes readers on a wild journey to explore this new frontier. Miller, the author of Einstein, Picasso and other celebrated books on science and creativity, traces the movement from its seeds a century ago—when Einstein’s theory of relativity helped shape the thinking of the Cubists—to its flowering today. Through interviews with innovative thinkers and artists across disciplines, Miller shows with verve and clarity how discoveries in biotechnology, cosmology, quantum physics, and beyond are animating the work of designers like Neri Oxman, musicians like David Toop, and the artists-in-residence at CERN’s Large Hadron Collider. From NanoArt to Big Data, Miller reveals the extraordinary possibilities when art and science collide.
Ai Hisano exposes how corporations, the American government, and consumers shaped the colors of what we eat and even the colors of what we consider “natural,” “fresh,” and “wholesome.” The yellow of margarine, the red of meat, the bright orange of “natural” oranges—we live in the modern world of the senses created by business. Ai Hisano reveals how the food industry capitalized on color, and how the creation of a new visual vocabulary has shaped what we think of the food we eat. Constructing standards for the colors of food and the meanings we associate with them—wholesome, fresh, uniform—has been a business practice since the late nineteenth century, though one invisible to consumers. Under the growing influences of corporate profit and consumer expectations, firms have sought to control our sensory experiences ever since. Visualizing Taste explores how our perceptions of what food should look like have changed over the course of more than a century. By examining the development of color-controlling technology, government regulation, and consumer expectations, Hisano demonstrates that scientists, farmers, food processors, dye manufacturers, government officials, and intermediate suppliers have created a version of “natural” that is, in fact, highly engineered. Retailers and marketers have used scientific data about color to stimulate and influence consumers’—and especially female consumers’—sensory desires, triggering our appetites and cravings. Grasping this pivotal transformation in how we see, and how we consume, is critical to understanding the business of food.
Carbon dioxide and global climate change are largely invisible, and the prevailing imagery of climate change is often remote (such as ice floes melting) or abstract and scientific (charts and global temperature maps). Using dramatic visual imagery such as 3D and 4D visualizations of future landscapes, community mapping, and iconic photographs, this book demonstrates new ways to make carbon and climate change visible where we care the most, in our own backyards and local communities. Extensive color imagery explains how climate change works where we live, and reveals how we often conceal, misinterpret, or overlook the evidence of climate change impacts and our carbon usage that causes them. This guide to using visual media in communicating climate change vividly brings to life both the science and the practical solutions for climate change, such as local renewable energy and flood protection. It introduces powerful new visual tools (from outdoor signs to video-games) for communities, action groups, planners, and other experts to use in engaging the public, building awareness and accelerating action on the world’s greatest crisis.
Recommended by Bob Proctor and quoted in The Secret Genevieve Behrend's Your Invisible Power is the original and best book on visualization for success. Behrend explains the principles and process of visualizing, and then tells how she used the technique to acquire $20,000, travel to England, and become the only personal student of the eminent mental scientist Thomas Troward.
Visualizing the Street investigates the social and cultural significance of new developments at the intersection of visual culture and urban space.
Für das umweltbezogene, nachhaltige Entwerfen sind sich stetig ändernde Naturkräfte wie Niederschlag und Feuer, Schatten und Wind zu wichtigen Faktoren geworden. Dieses Buch geht mit Beispielen aus Architektur und Landschaft der Geschichte, den Theorien und Anwendungen der klimagerecht gebauten Umwelt nach. Es wurde in Zusammenarbeit zwischen der University of Sydney und der National University of Singapore entwickelt und von Autoren aus Australien, Singapur und den USA verfasst. Im Rahmen der Kategorien "Trocken", "Feucht", "Kühl" and "Heiß" werden Darstellungspraktiken, -methoden und -beispiele in einer weiten Spanne thematisiert: von Wolken und Sturm bis hin zu Feuer und Eis. Ein abschließender Teil zeigt Anwendungsbeispiele in experimentellen Projektentwürfen.
