Advanced textbook on inorganic glasses suitable for both undergraduates and researchers. Engaging style to facilitate understanding Suitable for senior undergraduates, postgraduates and researchers entering material science, engineering, physics, chemistry, optics and photonics fields Discusses new techniques in optics and photonics including updates on diagnostic techniques Comprehensive and logically structured

This book is devoted to the problem of the frequency dispersion of optical constants of inorganic glasses. It is the only source providing a comprehensive discussion of this topic on a unified physical and analytical basis. Optical Constants of Inorganic Glasses presents thorough descriptions of the underlying physical phenomena, analytical models for the optical constants dispersion, and detailed information on the optical constants and related optical characteristics of glasses. The broad scope of the book includes such topics as general relationships for the response of a solid to the effect of an electromagnetic field, and specific features of optical spectrum formation for a glass and the resulting constants. The text details methods for reconstructing the spectra of optical constants from raw experimental spectra of glasses, and provides data on the spectra of optical constants in the IR and VUV ranges and on the IR band parameters for inorganic glasses. It includes factors responsible for the behavior of the refractive index dispersion of glasses in the transparency range. The reference fully details the opportunities provided by the recent version of dispersion analysis for glasses based on the specific analytical model for the complex dielectric constant. Until now, this information was only available in Russian journals. A large quantity of never-before-published data on numerical values of optical constants in the medium and far IR and of IR band frequencies and intensities is given for a wide variety of inorganic glasses. For vitreous silica, data on the optical constants are also given for the broad wavelength range in the VUV. Optical Constants of Inorganic Glasses provides the only comprehensive review of available dispersion formulas and methods for interpolating and extrapolating the refractive indices of glasses in the transparency range. The volume is a valuable resource for researchers, practitioners in the fields of glass technology

Advanced textbook on inorganic glasses suitable for both undergraduates and researchers. Engaging style to facilitate understanding Suitable for senior undergraduates, postgraduates and researchers entering material science, engineering, physics, chemistry, optics and photonics fields Discusses new techniques in optics and photonics including updates on diagnostic techniques Comprehensive and logically structured

This book introduces the fundamental mechanism of photonic glasses OCo the linear and nonlinear optical effects in glass under intense light irradiation: phot-induced absorption, refraction, polarization, frequency, coherence and monochromaticity changes. Emphasis is placed on new developments in the structure, spectroscopy and physics of new glassy materials for photonics applications, such as optical communication, optical data storage, new lasers and new photonic components and devices. The book presents the research results of the authors in new glasses for photonics over the last decade. Sample Chapter(s). Chapter 1: From Optical Glass to Photonic Glass (1,358 KB). Contents: From Optical Glass to Photonic Glass; Structure and Properties of Amorphous Thin Films for Optical Data Storage; New Development in Optics and Spectroscopy of Rare Earth Ions Doped Glasses; Third-Order Optical Nonlinear Properties of Glasses; Second Order Optical Nonlinear Properties of Glasses; Glass Fibers for Optical Amplification; Glass Fibers for High Power Lasers; Hybrid Organic-Inorganic Solid-State Dye Laser Glasses; Optical Glass Waveguides; Glass Photosensitivity and Fiber Gratings; Glass Fibers for Photonic Crystals; Functional Microstructures in Glass Induced by a Femtosecond Laser. Readership: Graduate students and researchers in optical materials."

This book is an introduction to recent progress in the development and application of glass with special photonics properties. Glass has a number of structural and practical advantages over crystalline materials, including excellent homogeneity, variety of form and size, and the potential for doping with a variety of dopant materials. Glasses with photonic properties have great potential and are expected to play a significant role in the next generation of multimedia systems. Fundamentals of glass materials are explained in the first chapter, and the book then proceeds to a discussion of gradient index glass, laser glasses, nonlinear optical glasses and magneto-optical glasses. Beginning with the basic theory, the book discusses actual problems, performance and applications of glasses. The book will be of value to graduate students, researchers and professional engineers working in materials science, chemistry and physics with an interest in photonics and glass with special properties.

Modern optical technology calls for new glasses with special properties for optical and optoelectronic devices. This text, based on modern quantum optical theories, aims to relate optical and spectroscopic properties to the composition and structure of glass-forming materials.

Glasses with photonic properties have great potential and are expected to play a significant role in the next generation of multimedia systems. This book is an excellent introduction to recent progress in the development and application of glass with special photonics properties. The authors, two eminent Japanese scientists, thoroughly explain the fundamentals of glass materials in the first chapter, and then proceed to discuss gradient index glass, laser glasses, nonlinear optical glasses, and magneto-optical glasses. Besides in-depth treatment of basic theory, Yamane and Asahara describe actual problems, performance, and applications of glasses. Their work will be of value to graduate students, researchers, and professional engineers in materials science, chemistry, and physics interested in photonics and glass with special properties.