Die beiden neuen Bände sind farbig geworden. In jedem Sinne. Um Farben geht es auch in den Texten, um die Farbigkeit des Lebens und um "Wortfarben", wie eine Kapitelüberschrift heißt. Die Themen sind dieselben wie in dem ersten Buch: Tango natürlich, Liebe, Sehnsucht, Freude, aber auch Scheitern und Wut. Und immer die Poesie des Alltags.
This textbook gives a basic introduction to theoretical physics. It deals with mechanics, electrodynamics, theory of relativity, quantum mechanics and statistical physics, thus covering all the standard disciplines of theoretical physics in a single volume. The material is presented in a concise style, enabling the reader to follow the central themes. Various excursions rarely found in other textbooks are designed to give deeper insight into interesting and current topics. A chapter on the mathematical background gives easy access to the other chapters and many exercises are included to support learning. The book is an ideal resource for advanced undergraduate and graduate students seeking to consolidate their knowledge.
This volume offers a fundamentally different way of conceptualizing time and reality. Today, we see time predominantly as the linear-sequential order of events, and reality accordingly as consisting of facts that can be ordered along sequential time. But what if this conceptualization has us mistaking the “exhausts” for the “real thing”, i.e. if we miss the best, the actual taking place of reality as it occurs in a very differently structured, primordial form of time, the time-space of the present? In this new conceptual framework, both the sequential aspect of time and the factual aspect of reality are emergent phenomena that come into being only after reality has actually taken place. In the new view, facts are just the “traces” that the actual taking place of reality leaves behind on the co-emergent “canvas’’ of local spacetime. Local spacetime itself emerges only as facts come into being – and only facts can be adequately localized in it. But, how does reality then actually occur? It is conceived as a “constellatory self-unfolding”, characterized by strong self-referentiality, and taking place in the primordial form of time, the not yet sequentially structured “time-space of the present”. Time is seen here as an ontophainetic platform, i.e. as the stage on which reality can first occur. This view of time (and, thus, also space) seems to be very much in accordance with what we encounter in quantum physics before the so-called collapse of the wave function. In parallel, classical and relativistic physics largely operate within the factual portrait of reality, and the sequential aspect of time, respectively. Only singularities constitute an important exemption: here the canvas of local spacetime – that emerged together with factization – melts down again. In the novel framework quantum reduction and singularities can be seen and addressed as inverse transitions: In quantum physical state reduction reality “gains” the chrono-ontological format of facticity, and the sequential aspect of time becomes applicable. In singularities, by contrast, the inverse happens: Reality loses its local spacetime formation and reverts back into its primordial, pre-local shape – making in this way the use of causality relations, Boolean logic and the dichotomization of subject and object obsolete. For our understanding of the relation between quantum and relativistic physics this new view opens up fundamentally new perspectives: Both are legitimate views of time and reality, they just address very different chrono-ontological portraits, and thus should not lead us to erroneously subjugating one view under the other. The task of the book is to provide a formal framework in which this radically different view of time and reality can be addressed properly. The mathematical approach is based on the logical and topological features of the Borromean Rings. It draws upon concepts and methods of algebraic andgeometric topology – especially the theory of sheaves and links, group theory, logic and information theory, in relation to the standard constructions employed in quantum mechanics and general relativity, shedding new light on the pestilential problems of their compatibility. The intended audience includes physicists, mathematicians and philosophers with an interest in the conceptual and mathematical foundations of modern physics.
This book presents an introduction to material theory and, in particular, to elasticity, plasticity and viscoelasticity, to bring the reader close to the frontiers of today’s knowledge in these particular fields. It starts right from the beginning without assuming much knowledge of the subject. Hence, the book is generally comprehensible to all engineers, physicists, mathematicians, and others. At the beginning of each new section, a brief Comment on the Literature contains recommendations for further reading.This book includes an updated reference list and over 100 changes throughout the book. It contains the latest knowledge on the subject.Two new chapters have been added in this new edition. Now finite viscoelasticity is included, and an Essay on gradient materials, which have recently drawn much attention.
This book sheds new light on the political economy of Russia under Putin’s rule. The author, a former EU diplomat, presents a historical review of the Russian economy and 60 years of state-communist mismanagement, followed by oligarchic privatization. The book offers profound insights into Putin’s rule and the power mechanics of the state-dominated management of the Russian economy. It identifies and assesses the lack of rule of law, together with an arbitrary and often corrupt administration that systematically discourages entrepreneurship and the emergence of an independent middle class. Furthermore, the book discusses Russia’s budgetary policy, its dependence on the export of natural resources, state-owned enterprises and their privileges, and Russia’s external trade. This hard-hitting, substantial analysis debunks the myth of Russia’s economic might and is a must read for anyone seeking to understand the economic realities of the Eurasian continent, or considering doingbusiness with Russia.
This book offers frameworks for the material modeling of gradient materials both for finite and small deformations within elasticity, plasticity, viscosity, and thermomechanics. The first chapter focuses on balance laws and holds for all gradient materials. The next chapters are dedicated to the material modeling of second and third-order materials under finite deformations. Afterwards the scope is limited to the geometrically linear theory, i.e., to small deformations. The next chapter offers an extension of the concept of internal constraints to gradient materials. The final chapter is dedicated to incompressible viscous gradient fluids with the intention to describe, among other applications, turbulent flows, as already suggested by Saint-Venant in the middle of the 19th century.
This book offers frameworks for the material modeling of gradient materials both for finite and small deformations within elasticity, plasticity, viscosity, and thermomechanics. The first chapter focuses on balance laws and holds for all gradient materials. The next chapters are dedicated to the material modeling of second and third-order materials under finite deformations. Afterwards the scope is limited to the geometrically linear theory, i.e., to small deformations. The next chapter offers an extension of the concept of internal constraints to gradient materials. The final chapter is dedicated to incompressible viscous gradient fluids with the intention to describe, among other applications, turbulent flows, as already suggested by Saint-Venant in the middle of the 19th century.
This textbook teaches the physics and technology of semiconductors, highlighting the strong interdependence between the engineering principles and underlying physical fundamentals. It focuses on conveying a basic understanding of the physics, materials, and processes involved in semiconductor technology without relying on detailed derivations. The book features separate comments on the key physical principles covered, allowing the reader to quickly grasp the take-home message. Chapter-end questions and answers round out this compact book, making it a helpful and dependable resource for physicists, electrical engineers, and materials scientists working with electronic materials. Aimed at upper-level undergraduate students and written by an author with extensive experience in both industry and academia, this textbook gives physicists the opportunity to learn about the materials and technology behind semiconductors, while providing engineers and materials scientists a deeper understandingof the physics behind the technology.
This textbook teaches the physics and technology of semiconductors, highlighting the strong interdependence between the engineering principles and underlying physical fundamentals. It focuses on conveying a basic understanding of the physics, materials, and processes involved in semiconductor technology without relying on detailed derivations. The book features separate comments on the key physical principles covered, allowing the reader to quickly grasp the take-home message. Chapter-end questions and answers round out this compact book, making it a helpful and dependable resource for physicists, electrical engineers, and materials scientists working with electronic materials. Aimed at upper-level undergraduate students and written by an author with extensive experience in both industry and academia, this textbook gives physicists the opportunity to learn about the materials and technology behind semiconductors, while providing engineers and materials scientists a deeper understandingof the physics behind the technology.
About 9,000 Jewish refugees from Nazi Germany settled in Australia between 1933 and 1945, a small fraction of the hundreds of thousands who fled. Although initially greeted with a mixed reception as «enemy aliens», some of these refugees remained and made a significant impact on multicultural Australia. This book traces the difficult journey of the orchestral performers, virtuoso soloists, singers, conductors and composers who sought refuge on a distant continent. A few were famous artists who toured Australia and stayed, most notably the piano virtuoso Jascha Spivakovsky and the members of the Weintraubs Syncopators, one of the most successful jazz bands of the Weimar Republic. Drawing on extensive primary sources – including correspondence, travel documents and interviews with the refugees themselves or their descendants – the author depicts in vivid detail the lives of nearly a hundred displaced musicians. Available for the first time in English, this volume brings to light a wealth of Jewish, exilic and musical history that was hitherto unknown.
Many problems of the engineering sciences, physics, and mathematics lead to con volution equations and their various modifications. Convolution equations on a half-line can be studied by having recourse to the methods and results of the theory of Toeplitz and Wiener-Hopf operators. Convolutions by integrable kernels have continuous symbols and the Cauchy singular integral operator is the most prominent example of a convolution operator with a piecewise continuous symbol. The Fredholm theory of Toeplitz and Wiener-Hopf operators with continuous and piecewise continuous (matrix) symbols is well presented in a series of classical and recent monographs. Symbols beyond piecewise continuous symbols have discontinuities of oscillating type. Such symbols emerge very naturally. For example, difference operators are nothing but convolution operators with almost periodic symbols: the operator defined by (A
