This volume contains the lectures given at the NATO Advanced Study Institute "The Study of Fast Processes and Labile Species in Chemistry and Molecular Biology Using Ionising Radiation" held in Capri, Italy, September 7-l8th 1981. The aim of the Institute was to summarise the present position of the use of pulsed ionising radiation in chemical and biological chemical research. For background an outline of the basic radiation chemistry and physics involved and descriptions of techniques and equipment in current use was presented. It was followed by comprehensive coverage of the state of this research to date in various areas of chemistry and biological chemistry. It was hoped to demonstrate to researchers not directly involved with ionising radiation how this technique is now at a stage in its development where it can have wider applications in various branches of chemistry and biology. The fifty participants did indeed form a wide spectrum of scientific interest covering inorganic, physical and organic chemistry, molecular physics, molecular biology, radiobiology and bacteriology. They also represented a wide variety of countries viz. Belgium, China, Denmark, France, Germany, Greece, Holland, Hungary, India, Italy, Poland, Turkey, U.S.A., U.K. and Yugoslavia.

The objectives of this book are (1) to serve as a reasonably comprehensive text on the subject of drilling hydraulics and (2) to provide the field geologist with a quick reference to drilling hydraulics calculations. Chapter 1 introduces the basic principles of fluid properties, and Chapter 2 presents the general principles of fluid hydraulics. Chapters 3 through 10 analyze specific hydraulic considerations of the drilling process, such as viscometric measurements, pressure losses, swab and surge pressures, cuttings transport and hydraulic optimization. References are presented at the end of each section. The units and nomenclature are consistent throughout the manual. Equations are given generally in consistent S.1. units; some common expressions are also given in oilfield units. Nomenclature is explained after every equation when necessary, and a comprehensive list of the nomenclature used is given in Appendix A. Units are listed in Appendix B. In Appendix C, all the important equations are given in both S.1. and oilfield units. Appendix D contains example hydraulics calculations. A glossary is included. THEORY AND APPLICATION OF DRILLING FLUID HYDRAULICS 1 INTRODUCTION To dri 11 a we 11 safely and succes sfull y depends upon a thorough unders tandi ng of drilling hydraulics principles. Thus, drilling hydraulics is a very impor tant subject with which all logging geologists should be familiar.

Pulse Radiolysis presents an in-depth discussion of the pulse radiolysis technique, one of the most important and powerful means for detecting transient and relaxation phenomena and following their behavior in irradiated systems. The book covers the principle of pulse radiolysis, identifies various kinds of pulse radiolysis techniques, and discusses recent advancements in the field. The text also discusses new experimental pulse radiolysis techniques (basic and applied) in broad scientific fields such as physics, chemistry, biology, and engineering. These techniques include picosecond pulse radiolysis, single particle radiolysis, and muon-induced transient phenomena. Pulse Radiolysis provides essential information for all professionals involved with pulse radiolysis research.

Examples are chosen from the leterature to show the types of species which have been investigated in the gas phase using the pulse radiolysis technique. The types of processes occurring in pure rare gases and rare gases containing additives are examined. Techniques used to study ion-recombination processes, ion-molecule reactions, and electron capture reactions are discussed and examples of typical results are given. The use of pulse radiolysis to determine rate constants for reactions of atoms and free radicals is also examined. 21 figures, 3 tables.

It is now more than 20 years since the book "Radical Ions" edited by Kaiser and Kevan appeared. It contained aspects regarding generation, identification, spin density determination and reactivity of charged molecules with an odd number of electrons. New classes of reactive ion radicals have been detected and characterised since then, most notably cation radicals of saturated organic compounds. Trapping of electrons has been found to occur not only in frozen glasses but also in organic crystals. The structure and reactions of anion radicals of saturated compounds have been clarified during the last 20 years. We have asked leading experts in the field to write separate chapters about cation radicals, anion radicals and trapped electrons as well as more complex systems of biological or technological interest. More attention is paid to recent studies of the ions of saturated compounds than to the older and previously reviewed work on aromatic ions. In the case of trapped electrons full coverage is out of the question, and focus is on recent efforts to characterise the solvation structure in ordered and disordered systems.

Published a few years after the author's death, this volume is a sequel to his 1964 book, Fast Reactions in Solution; the material is entirely new, extending investigation beyond now well-established fast-reaction techniques to consider their contribution to understanding events on the molecular scale. After an introductory chapter on origins, methods, mechanisms, and rate constants, coverage includes the rates of diffusion-controlled reactions, mathematical theory of diffusion, flash photolysis techniques, fluorescence quenching, Marcus theory involving proton-transfer and group-transfer reactions in solutions, and electron-transfer reactions. Annotation copyrighted by Book News, Inc., Portland, OR.