Oxford Series in Optical and Imaging Sciences – serie

This volume focuses on the fundamentals of the technique of analysing material based on the atomic weight of the species, using the power and definition of lasers to enable measurement of smaller quantities and more finely localized particles. Each chapter deals with a particular application area and should be sufficient to form an entry point for the utilization of mass spectrometry by graduate students and researchers. The book provides the first full discussion of the new techniques of laser applications in the field.

In spite of the current excitement and novely of magnetic, i.e., diskette, tape and 'solid-state' imaging techniques, photographic film still provides the highest resolution and most beautiful images of any imaging medium. This book systematically describes the theory and mechanisms of photographic sensitivity, with topics stressing the understanding the characteristics of silver halide photography. The topics include the structure and preparation of silver halide grains, physical properties of silver halides, mechanisms of latent image formation, spectral sensitization, chemical sensitization and stabilization, photograhic development, and the future prospect. This book is based on the author's knowledge, gained by 30 years' experience in the field. The audience ranges from chemists and physicists who work with silver halide imaging techniques, to those working in solid-state imaging, who need to compare their work with that of silver halide experts.

This book describes how Monte Carlo modeling methods can be applied to Electron Microscopy and Microanalysis. Computer programs for two basic types of Monte carlo simulation are developed from physical models of the electron scattering process; a Single Scattering program capable of high accuracy but requiring long computation times, and a Plural Scattering program which is less accurate but much more rapid. The programs are optimised for use on personal computers and provide a real time graphical display of the interaction. These programs are then used as the starting point for the development of programs aimed at studying particular effects in the electron microscope including backscattering, secondary electron production, EBIC and cathodo- luminescence imaging, and X- ray microanalysis. The computer code is given in a fully annotated format so that it may be readily be modified for use in specific problems. Many examples of the applications of these methods are provided, together with a complete bibliography.

This book by one of the leaders in adaptive optics covers the fundamental theory and then describes in detail how this technology can be applied to large ground-based telescopes to compensate for the effects of atmospheric turbulence. It includes information on basic adaptive optics components and technology, and has chapters devoted to atmospheric turbulence, optical image structure, laser beacons, and overall system design. The chapter on system design is particularly detailed and includes performance estimation and optimization. Combining a clear discussion of physical principles with numerous real-world examples, this book will be a valuabe resource for all graduate students and researchers in astronomy and optics.

This technology has proved indispensable as a characterization tool with applications in surface physics, chemistry, materials science, bio-science, and data storage media. It has also shown great potential in areas such as the semiconductor and optical quality control industries. This revised edition updates the earlier such survey of the many rapidly developing subjects concerning the mapping of a variety of forces across surfaces, including basic theory, instrumentation, and applications. It also includes important new research in SFM and a thoroughly revised bibliography. Academic and industrial researchers using SFM or wishing to know more about its potential, will find this book an excellent introduction to this rapidly developing field.

This is a self-contained introduction to a new field of applied physics on the frontier between integrated optics and non-linear wave dynamics. It is intended to help make use of the novel phenomena of non-linear optics in the design of new all-optial circuits. The book mainly deals with third-order non-linear optical phenomena in layered structures, guiding interfaces, and channel waveguides. In particular attention is drawn to the concepts of energy dependent periodicity, gyrotropy, reflection, mode conversion, and non-reciprocity. An indespensable text for those requiring a structured explanation of the phenomena as well as information about the latest advances in a new generation of devices.

Methods in theoretical quantum optics is aimed at those readers who already have some knowledge of mathematical methods and have also been introduced to the basic ideas of quantum optics. This book is ideal for students who have already explored the basics of the quantum theory of light and are seeking to acquire the mathematical skills used in real problems. This book is not primarily about the physics of quantum optics, but rather presents the mathematical methods widely used by workers in this field. There is no comparable book which covers either the range or the depth of mathematical techniques.

This book is aimed at those readers who already have some knowledge of mathematical methods and have also been introduced to the basic ideas of quantum optics. It should be attractive to students who have already explored one of the more introductory texts such as Loudon's The quantum theory of light (2/e, 1983, OUP) and are seeking to acquire the mathematical skills used in real problems. This book is not primarily about the physics of quantum optics but rather presents the mathematical methods widely used by workers in this field. There is no comparable book which covers either the range or the depth of mathematical techniques.

Photorefractive materials combine photoconductive and electro-optic properties: light affects their electrical conductivity; their optical properties (refractive index, etc.) are affected by applied electric fields.The aim of this book is to cover the vast range of phenomena occurring in Photorefractive Materials. For Physicists it is part of the fashionable subject of Nonlinear Optics. Engineers tend to place it as part of optoelectronics promising a variety of new devices. This book summarizes the results of 28 years of research in a manner that would appeal both to the beginner (a graduate student who has just entered the field) and to the expert (who might have done research on some aspect of the subject for a decade or more). It is in three parts. Part I serves as an introduction with emphasis on physical principles and simple mathematical models. Part II is a comprehensive account of all the major advances. Its main merit is the organization of the material accompanied by a detailed list of references. Part III is concerned with the enormous range of potential applications.

Solitons are a fascinating topic for study and a major source of interest for potential application in optical communication. Possibly the first observation of a soliton occurred in 1838 and was made by a clerical gentleman riding a horse along a canal towpath. When a barge under tow came to a stop alongside him the bow wave did not stop, but continued to travel on its own for several miles with no change in shape. At the time this unusual phenomenon was not understood and remained unexplained. Interest was revived with the development of optical fibres and the realisation that at the high intensities possible in their very small cores the onset of non-linear effects could modify the propagation characteristics in a significant way. In a seminal paper in 1973 Hasegawa and Tappert solved a non-linear Schrodinger equation for fibre propagation and found solutions for solitary waves, i.e. solitons. Since then advances have been very rapid resulting in a much better understanding of a wide variety of soliton effects, and, crucially, the realisation that soliton propagation can be used to potentially great advantage in practical long-distance systems. There is, as a result, a wealth of theoretical and experimental research in progress all over the world. At NTT (Japan) a pule-code-modulated soliton train has been transmitted at 10Gbit/s over one million kilometres with zero error! Perhaps all long-distance, large bandwidth communication problems have been solved for ever. This book gives a clear account of the theory and mathematics of solitons travelling in optical fibres. It is written by the authority on the subject.