This is both the story of life and the history of the cosmos, but not as you have ever read before. Best-selling science writer Lawrence Krauss takes as his narrative the twisted and improbable tale of a single atom of oxygen, a history that starts at the dawn of time, and journeys beyond the death of stars and people to the death of all matter itself. The atom at the center of this book travels a dangerous and extraordinary path: exploding supernovas, solar winds and collapsing stars preceded the rise of life on earth and one day may foretell its end. Throughout this astonishing work, Krauss manages to stoke our wonder at the powers and unlikely events that conspired to create our solar system, our ecosystem and us.

The highly acclaimed first edition of this major work convincingly established Gerald Holton’s analysis of the ways scientific ideas evolve. His concept of “themata,” induced from case studies with special attention to the work of Einstein, has become one of the chief tools for understanding scientific progress. It is now one of the main approaches in the study of the initiation and acceptance of individual scientific insights. Three principal consequences of this perspective extend beyond the study of the history of science itself. It provides philosophers of science with the kind of raw material on which some of the best work in their field is based. It helps intellectual historians to redefine the place of modern science in contemporary culture by identifying influences on the scientific imagination. And it prompts educators to reexamine the conventional concepts of education in science. In this new edition, Holton has masterfully reshaped the contents and widened the coverage. Significant new material has been added, including a penetrating account of the advent of quantum physics in the United States, and a broad consideration of the integrity of science, as exemplified in the work of Niels Bohr. In addition, a revised introduction and a new postscript provide an updated perspective on the role of themata. The result of this thoroughgoing revision is an indispensable volume for scholars and students of scientific thought and intellectual history.

For sophomore-level courses in modern physics. This comprehensive text provides a clear, correct, and up-to-date introduction and survey of the topics of importance to tomorrow's engineers and scientists. The presentation includes the description of the history of the topics, to show students how we got to where we are; it stresses the importance of observation and experiment; and it emphasizes numbers, so that students develop a feel for the magnitudes involved and for when different principles become important.

Aerodynamics by Theodore Von Karman is a classic textbook that provides a comprehensive introduction to the principles of aerodynamics. The book covers the fundamental concepts of fluid dynamics, including the behavior of gases and liquids, the equations of motion, and the principles of conservation of mass, momentum, and energy. It also explores the physics of aerodynamic forces, such as lift and drag, and the role of viscosity and turbulence in the flow of fluids. The book includes detailed discussions of various aerodynamic phenomena, such as boundary layers, shock waves, and vortices, and their impact on aircraft design and performance. It also covers the design and analysis of airfoils, wings, and other aerodynamic components, as well as the principles of aircraft stability and control. Written by one of the most renowned figures in the field of aerodynamics, this book is an essential resource for students and professionals in the aerospace industry, as well as anyone interested in the science of flight. With its clear explanations, extensive illustrations, and practical examples, Aerodynamics is a valuable reference for anyone seeking a deeper understanding of the principles that govern the behavior of fluids in motion.Selected Topics In The Light Of Their Historical Development.This scarce antiquarian book is a facsimile reprint of the old original and may contain some imperfections such as library marks and notations. Because we believe this work is culturally important, we have made it available as part of our commitment for protecting, preserving, and promoting the world's literature in affordable, high quality, modern editions, that are true to their original work.

This book is about how the wonderful diversity of the universe can arise out of a set of fairly simple basic laws. It is written by an expert in both the fundamental laws and the complex structures that they can produce.' Stephen Hawking's acclaim of Murray Gell-Mann's literary debut is typical of the reception the book received on first publication in 1994. From one of the twentieth century's greatest scientists comes this unique, highly personal vision of the connections between the basic laws of physics and the complexity and diversity of the natural world. THE QUARK AND THE JAGUAR - the simple and the complex - is an irresistibly engaging and rewarding introduction to the life's work of physicist, polymath and Nobel Laureate Murray Gell-Mann.

The subtitle of this volume is exact, for Leo Szilard's work ranged from physics to biology; he crossed over with ease from the world of neutrons to that of neurons, from the nuclei of atoms to the nuclei of cells. At a deeper level, all of these research activities converge, unified as they are by Szilard's interest in the fundamental ideas of order and organization that underlie them all. It is no accident, as Jacques Monod notes in this foreword, that this interest should appear explicitly as the subject of one of his very first papers, and of his last. In the former, concerning the operations of an intelligent being on a thermodynamic system, Szilard anticipated by many years the entropic formulation of information theory, while the latter, "On Memory and Recall," is concerned with the organization of the central nervous system. Szilard's spontaneous, unrepressed flow of ideas was followed by a critical process of selection and refinement, which may account for the relatively small number of published papers—under thirty—found in this collection. The papers are arranged chronologically, and their ordering comprises a resume of Szilard's scientific life. The first group of papers, 1925-1939, all deal with various aspects of physics—thermodynamics, x-ray crystallography, and nuclear physics. The work in this last area includes studies of neutron bombardment and of the possibilities of nuclear fission and chain reactions, which Szilard was among the first to envision. The second group, 1940-1945, comprises the first publication of documents relating to the Manhattan Project, and reflect Szilard's part in it. Most of these documents were previously classified. There are no scientific papers from the years 1946-1948. These were years when Szilard was intensely active in the political and social arena, attempting to bring the atomic bomb under international control. Documents relating to this struggle, and to his earlier leadership in efforts both to undertake the atomic project and to prevent the bomb's use without warning against Japan, will be collected in another volume. It was also during these critical years that Szilard's interest decisively turned from physics to biology. The third group covers the years 1949-1964, when Szilard's interest centered around biological problems. Among these are the regulation of cellular metabolism, antibody formation, the aging process, and the functioning of the central nervous system. A final section of the book reproduces patents and patent applications of historic importance dating from 1923 to 1959, and ranging from the invention of a refrigerator, jointly with Albert Einstein; an application anticipating the cyclotron in 1928; and the general concepts of a nuclear chain reaction in 1934 to the first patent on the nuclear reactor granted jointly to Fermi and Szilard.

This exploration of the mathematical methods of physics takes a careful look at mathematical entities and explains their elementary properties. Its examples, drawn from the physical sciences, illustrate the application of concepts. The theory of distributions is introduced early and employed throughout the text. Concise rather than comprehensive, this text states only essential results in its proofs. Topics include preliminary results in the integral calculus, elementary theory of distributions, convolution, Fourier series and the Fourier transform, the Laplace transform, wave and heat conduction equations, the gamma function, and Bessel functions. Prerequisites include a familiarity with linear algebra and functions of a complex variable.

From Simon & Schuster, The Eagles Quest is a story of a physicist finding the scientific truth at the heart of the Shamanic world. The Eagle's Quest is an exploration of shamanism and its interaction with quantum physics examines natural healing, shape shifting, fire walking, near-death and out-of body experiences, lucid dreaming, and time traveling.

Analyzes the theoretical questions related to electron and photon interactions at high energies.

Prologue.- A. Fall Quarter: Quantum Kinematics.- 1 Measurement Algebra.- 2 Continuous q, p Degree of Freedom.- 3 Angular Momentum.- 4 Galilean Invariance.- B. Winter Quarter: Quantum Dynamics.- 5 Quantum Action Principle.- 6 Elementary Applications.- 7 Harmonic Oscillators.- 8 Hydrogenic Atoms.- C. Spring Quarter: Interacting Particles.- 9 Two-Particle Coulomb Problem.- 10 Identical Particles.- 11 Many-Electron Atoms.- 12 Electromagnetic Radiation.

In these essays Heinz von Foerster discusses some of the fundamental principles that govern how we know the world and how we process the information from which we derive that knowledge. Included are path- breaking articles concerning the principles of computation in neural nets (1967), the definition of self-organizing systems (1960), the nature of cognition (1970), as well as recent expansions on these themes (e.g. "How recursive is communication," 1993). Working with Norbert Wiener, Warren McCullough, and others in the 1960s and 1970s, von Foerster was one of the founders of the science of cybernetics, which has had profound effects both on modern systems theory and on the philosophy of cognition. At the Biological Computer Laboratory at the University of Illinois he produced the first parallel computers and contributed to many other developments in the theory of computation and cognition.

In these engaging memoirs of a maverick, Theodore H. Maiman describes the life events leading to his invention of the laser in 1960. Maiman succeeded using his expertise in physics and engineering along with an ingenious and elegant design not anticipated by others. His pink ruby laser produced mankind’s first-ever coherent light and has provided transformational technology for commerce, industry, telecom, the Internet, medicine, and all the sciences. Maiman also chronicles the resistance from his employer and the ongoing intrigue by competing researchers in industry and academia seeking to diminish his contribution in inventing the first laser. This work will appeal to a wide readership, from physicists and engineers through science enthusiasts to general readers. The volume includes extensive photos and documentary materials related to Maiman’s life and accomplishments never before published. "No one beat Maiman to the laser. How important is the laser? How important are all lasers? That is how important we have to regard Maiman’s contribution.He and the laser changed all of our lives, everyone’s!"Dr. Nick Holonyak, Jr., Professor of Electrical and Computer Engineering and Physics, University of Illinois at Champaigne-Urbana, and inventor of the light-emitting diode (LED) and co-inventor of the transistor laser "More than five decades later, we can safely conclude that Theodore Maiman's groundbreaking discovery changed the world. Our modern life just as scientific research would be quite different without the laser."Dr. Ferenc Krausz, Director, Max Planck Institute for Quantum Optics, Garching, Germany, and Professor of Physics, Ludwig Maximilian University, Munich, and pioneer in attosecond lasers and attophysics "Maiman had the stroke of genius needed to take a different approach [from his competitors]. The sheer elegance and simplicity of his design beliesthe intellectual achievement it represents. If his invention seems obvious to some today, it was far from obvious in 1960."Jeff Hecht, authoritative science writer on the historical development of the laser, author of books on lasers and fiber optics

This book is a critical analysis, based on a broad physical, historical, and philosophical study, of how empirical phenomena led to the renunciation of classical physics and how experimental research -- combined with mathematical thought and philosophical speculation -- opened entirely novel perspective. It offers a thorough, detailed exposition of the various phases of the development of quantum theory, analyzes the logical dependence of each stage on those preceding it, and leads the reader from the very beginning of this intellectual process to the front line positions of current foundational research in physics. "... the only full history of the Quantum Theory." -- Dr. F. Hund, Institute for Theoretical Physics, Gottingen University.

Intended for a first year graduate course in quantum mechanics, this collection of topics can also be considered as a set of self-contained ``monographs for pedestrians'' on the Mouml;ssbauer effect, many-body quantum mechanics, kaon physics, scattering theory, Feynman diagrams, symmetries and relativistic quantum mechanics. An unusual feature of the book is the introduction of many interesting physical problems and mathematical techniques at a much earlier level than in conventional texts. This approach enables the student to see the physical implications and useful applications of quantum theory before he has mastered the formalism in detail. It provides him with new mathematical tools at an earlier stage for use in subsequent problems. It also presents the active research physicist with a ``pedestrian'' treatment of many topics without the necessity of learning the formalism.

A Nobel Laureate who is committed to scientific literacy, Glashow brings his intelligence and vast understanding of the subject to a text geared to liberal arts students. Combining fascinating literary and historical references with a vigorous, whimsical, and often humorous writing style, Glashow traces the evolution of physics and chemistry from ancient to modern times and explains not only what we know about matter and the universe, but how we came to know it, and why it is important.