Introducing astrochemistry to a wide audience, this book describes how molecules formed in chemical reactions occur in a range of environments in interstellar and circumstellar space, from shortly after the Big Bang up to the present epoch. Stressing that chemistry in these environments needs to be driven, it helps identify these drivers and the various chemical networks that operate giving rise to signature molecules that enable the physics of the region to be better understood. The book emphasises, in a non-mathematical way, the chemistry of the Milky Way Galaxy and its planet-forming regions, describes how other galaxies may have rather different chemistries and shows how chemistry was important even in the Early Universe when most of the elements had yet to be formed. This book will appeal to anyone with a general interest in chemistry, from students to professional scientists working in interdisciplinary areas and non-scientists fascinated by the evolving and exciting story of chemistry in the cosmos.

This is the first book devoted to a study of the chemistry of cosmic dust, presenting current thinking on the subject distilled from many publications in surface and solid-state science, and in astronomy.

" This is one of the most important books on quantum mechanics ever written for lay readers, in which an eminent physicist and successful science writer, Heinz Pagels, discusses and explains the core concepts of physics without resorting to complicated mathematics. "Can be read by anyone. I heartily recommend it!" -- New York Times Book Review. 1982 edition"--

Text for back cover page. Bright Hole Cosmos invites you to replace the Big Bang paradigm of a unique cosmic origin and expansion by multi-bang expansions followed by contractions within a permanent cosmic recycling of all electronuclear material. The progenitors of stars and galaxies are found in expanding shells colliding with their neighbours along dynamic common walls which are home to groups of galaxies that will in turn migrate to clusters. Large clusters end up in the crushing gravitational claws of giant black holes whose final compacted destiny is a maxi-bang event, the birth of a new expanding bubble. A new method is presented to compute galactic rotation velocities from Doppler shift field data whereby Newtonian dynamics is adapted and applied to point-like corrections on a disk. The Standard Model of electronuclear particles is introduced with a questioning on the speed of gravity and the Planck units where a mare incognitum is found.

The state-of-the-art in contemporary theoretical chemistry is presented in this 4-volume set with numerous contributions from the most highly regarded experts in their field. It provides a concise introduction and critical evaluation of theoretical approaches in relation to experimental evidence.

The secrets of nature's alchemy captivated both the scientific and literary imagination of the Middle Ages. This book explores Chaucer's fascination with earth's mutability. Gabrovsky reveals that his poetry represents a major contribution to a medieval worldview centered on the philosophy of physics, astronomy, alchemy, and logic.

If you thought physics was all about measuring the temperature of ice in a bucket or trying to fathom what E=mc2 means, think again. How to Destroy the Universe and 34 other really interesting uses of physics demystifies the astonishing world of physics in a series of intriguing, entertaining and often extraordinary scenarios--that explain key physics concepts in plain and simple language. You'll find out how to save the planet from energy shortages by mining the vacuum of empty space, engineer the Earth's climate to reverse the effects of global warming, and fend off killer asteroids just like Bruce Willis and his vest. You'll learn essential survival skills such as how to live through a lightning strike, how to tough it out during an earthquake and how to fall into a black hole without being squashed into spaghetti. And you'll discover some plain old cool stuff like how to turn lead into gold, how to travel to the centre of the Earth, how to crack supposedly unbreakable codes and how to use physics to predict the stock market. So if you want to get to grips with science behind relativity, antigravity and parallel universes, or if you are really more interested in learning how to teleport, travel through time or achieve immortality, this is the perfect introduction to the amazing world of modern physics.

Modern life is made up of a mind-boggling array of materials. A simple drinking cup, for example, might be made of Styrofoam, paper, or glass, depending on the drinkers needs at the moment. Home storage cabinets can be made of metal, wood, or plastic. Space shuttles are assembled from silicon, steel, and hundreds of other materials. All of these items owe their properties to the chemical bonds between the atoms that make up the substance. "Chemical Bonds" examines the nature of the chemical bonds, answering fundamental questions about how they form, how they are broken, and how they help define life as we know it.

Ever wondered if the chemical processes taking place in space could be related to the origins of life? The authors of this book, both experienced astrochemists, embark on a discussion to find the answers to this question and more, and include a general introduction to astrochemistry for chemistry students. They explore chemistry occurring in the universe from its very early beginnings until the present era. Based on our current understanding, astrochemistry is known to occur in interstellar gas, on dust grains and in interstellar ices, in stellar atmospheres and envelopes, in dense star- and planet-forming regions, and on planets and other bodies in planetary systems. Recent observational discoveries supported by remarkable laboratory work emphasize chemical complexity, leading to answers to the tantalizing question: can this complexity be related to the origin of life? This book provides the tools to enable chemistry students to make their own computational investigations of astrochemistry and directs study across the chemical sciences and astronomy. Concentrating on fundamental processes, this book is a useful teaching aid.

Many astrophysical bodies produce winds, jets or explosions, which blow spectacular bubbles. From a nonmathematical, unifying perspective, based on the understanding of bubbles, the authors address many of the most exciting topics in modern astrophysics including supernovae, the production of structure in the Early Universe, the environments of supermassive black holes and gamma-ray bursts.