Spectroscopy in Inorganic Chemistry, Volume II is a collection of research studies on some of the spectroscopic methods and areas of inorganic chemistry in which spectroscopy has been used effectively. This book is divided into seven chapters that present the status reports and potentialities in the fields of study. Each chapter outlines the theoretical and experimental aspects, as well as the application to a specific field of the analytical method. The first three chapters deal with the molecular structure determination by neutron and X-ray diffraction, high-pressure vibrational spectroscopy, and electronic Raman transitions of rare earth ions. Other chapters explore the potential of electron spin resonance spectroscopy for inorganic radical and radical ion determination, as well as the application of electron spin resonance for coordination compound analysis. The remaining chapters examine the use of electronic spectroscopy for organometalloid study and the fluorescence and laser action in rare earth chelates. This book is intended primarily for analytical and inorganic chemists and spectroscopists who are interested in inorganic systems.

A knowledge of spectroscopic methods is required to interpret the shape and structure of compounds - this informative book concentrates on their application to inorganic compounds. The emphasis is placed on obtaining and interpreting the data rather than concentrating on the theory. To this end, examples are given in the text and worked through to show the processes involved in assigning spectra and obtaining information from them. This essential text for all undergraduate chemists will also benefit postgraduate students researching in the field of inorganic chemistry.

The Sixth Edition of this classic work comprises the most comprehensive and current guide to infrared and Raman spectra of inorganic, organometallic, bioinorganic, and coordination compounds. From fundamental theories of vibrational spectroscopy to applications in a variety of compound types, this has been extensively updated. New topics include the theoretical calculations of vibrational frequencies (DFT method), chemical synthesis by matrix co-condensation reactions, time-resolved Raman spectroscopy, and more. This volume is a core reference for chemists and medical professionals working with infrared or Raman spectroscopies and an excellent textbook for graduate courses.

La 4e de couverture indique "Offering a concise and accessible conceptual grounding in the general physical principles underlying NMR spectroscopy, including NMR spectroscopy of nuclei other than 1H, this new edition of NMR Spectrocopy in Inorganic Chemistry introduces students to the basics of predicting NMR spectra. The text then builds on that understanding to cover more challenging concepts, such as factors influencing the chemical shift, coupling constants, and dynamic NMR spectroscopy."

In 1988 the Mossbauer effect community completed 30 years of continual contribution to the fields of nuclear physics, solid state science, and a variety of related disciplines. To celebrate this anniversary, Professor Gonser of the Universitat des Saarlandes has contributed a chapter to this volume on the history of the effect. Although Mossbauer spectroscopy has reached its mature years, the chapters in this volume illustrate that it is still a dynamic field of science with applications to topics ranging from permanent magnets to biologi cal mineralization. During the discussion of a possible chapter for this volume, a potential author asked, "Do we really need another Mossbauer book?" The editors responded in the affirmative because they believe that a volume of this type offers several advantages. First, it provides the author with an opportunity to write a personal view of the subject, either with or without extensive pedagogic content. Second, there is no artificially imposed restriction on length. In response to the question, "How long should my chapter be?," we have responded that it should be as long as is necessary to clearly present, explain, and evaluate the topic. In this type of book, it is not necessary to condense the topic into two, four, or eight pages as is now so often a requirement for publication in the research literature.

This text describes the technique of optical spectroscopy applied to problems in condensed matter physics. It relates theoretical understanding to experimental measurement, including discussion of the optical spectroscopy of inorganic insulators, with many illustrative examples. Symmetry arguments are developed from a formal group theoretical basis and are frequently used, and a special effort is made to treat the subject of lattice vibrations and to show how these can affect the spectroscopic properties of solids. The elements of laser theory are developed, and the authors also explore the use of optically detected magnetic resonance techniques for the investigation of semiconducting materials.