The physics of open quantum systems plays a major role in modern experiments and theoretical developments of quantum mechanics. Written for graduate students and readers with research interests in open systems, this book provides an introduction into the main ideas and concepts, in addition to developing analytical methods and computer simulation techniques.

This report is the result of a study encompassing astrophysical phenomena that give insight into fundamental physics, as well as fundamental physics relevant to understanding astrophysical phenomena, and the structure and evolution of the universe. Includes color illustrations.

This book tells how you can build a state-of-the-art Dobsonian telescope using readily available materials and supplies. Every step of construction is detailedin photographs and diagrams, and the underlying ideas are carefully explained. As a result of this three-year collaboration between authors David Kriege and Richard Berry, experienced and well-known telescope makers, you now have the opportunity to build a high-performance telescope from 14 inches to 40 inches aperture based on the thoroughly tested designs described in this book. The Dobsonian telescope takes its name from the astronomer/philosopher John Dobson, who introduced the concept of inexpensive, large-aperture telescopes to astronomy. Amateur astronomers at the time were so amazed that a telescope builtfrom simple, inexpensive materials performed so well that they could hardly believe their eyes. As home-built Dobsonians started showing up at star parties across the nation and people saw what Dobsonians could do, the word spread. In just a few years, the Dobsonian revolution swept the world. Since those early telescopes, Dobsonians have improved dramatically. An entire generation of amateur telescope makers contributed their best insights and refinements to Dobson's original design. Today's Dobsonians are larger, lighter,and more precise than ever before. For example, it is possible to build a telescope of 20 inches aperture that is compact enough to transp

This volume from the Einstein Studies Series is based largely on papers presented at the Sixth International Conference on the History of General Relativity, held in Amsterdam on June 26-29, 2002. These contributions from notable experts offer both new and historical insights on gravitation, general relativity, cosmology, unified field theory, and the history of science.

Knowledge of food science is applicable to all persons, in diverse college majors. This text is designed with a user-friendly approach to Food Science for the non-major. This text reviews an Introduction to Food Components – quality and water. Next it addresses carbohydrates – including starches, pectins and gums, breads and pasta, vegetables and fruits. Then proteins – meats, poultry, fish, beans, eggs, milk and milk products are presented. Following proteins are fats and emulsions. Then sugars and sweeteners, and baked products, the latter of which builds upon basic food component knowledge.

Modern materials science and biophysics are increasingly focused on studying and controlling intermolecular interactions on the single-molecule level. Molecular force spectroscopy was developed in the past decade as the result of several unprecedented advances in the capabilities of modern scientific instrumentation, and defines a number of techniques that use mechanical force measurements to study interactions between single molecules and molecular assemblies in chemical and biological systems. Examples of these techniques, which typically target a specific range of experimental systems and geometries, include atomic force microscopy, optical tweezers, surface forces apparatus, and magnetic tweezers.

Efficiency as well as economy of chemical processes can be increased by integration of reaction and separation in one unit. In this case e.g. reversible reaction may reach complete conversion. Well known examples are reactive distillations. But it has to be taken into account that process integration is not advantages in any case. An important parameter for process design is the degree of integration which varies between homogeneous integration, partial integration with distributed functionalities and non-integrated sequential processes.

Companies wishing to become less environmentally polluting without incurring high (or increasing) costs must embrace new innovations. There are various technologies which enable organisations to achieve large reductions in their emissions by employing resource saving, using new resources or following pollution controls. The costs of the available technologies decrease with use as adaptations are made based on practical experience. This rate of cost reduction is rapid for most industrial sectors. Environmental policies provide a further incentive for innovation, as the environmental demands of authorities can have short lead-time in preparation and fast and strict enforcement, or involve negotiations between stakeholders if the harmed interests use legal instruments to ensure that their demands can be enforced. Companies which undertake environmental innovations and adaptations can reduce their emissions down to levels that do not preclude sustainable environmental qualities, without increasing their costs and in many cases even enjoying cost savings.

Chemical synthesis is one of the key technologies underlying modern drug discovery and development. For the design and accessibility of novel structures and the rapid preparation of new test compounds and development candidates with often highly complex chemical architecture, it is essential to use state-of-the-art chemical synthesis technologies. Recent developments in the field of asymmetric catalysis point to a third class of catalysts besides the established enzymes and metal complexes, so-called organocatalysts. These low-molecular-weight, organic molecules enable highly chemo- and stereoselective chemical transformations for the rapid assembly of complex bioactive molecules of interest for the pharmaceutical industry.