This text encapsulates the papers presented in 1991 at a conference organized by the Society of Glass Technology (held every six years). The complex physics and interdisciplinary nature of glass technology is emphasized. It includes information on resonance phenomena and ionic transport.

A reissue of a classic Oxford text. The book sets out theoretical concepts and makes comparisons with experiments for a wide variety of phenomena in non-crystalline materials.

Treatise on Materials Science and Technology, Volume 20: Ultrarapid Quenching of Liquid Alloys investigates the relationship between the science and utility of materials, with emphasis on the ultrarapid quenching of liquid alloys. Topics covered range from rapid solidification of non-metals and crystalline iron-base alloys to corrosion behavior of amorphous alloys. Experimental methods in rapid quenching from the melt are also discussed. This volume is comprised of nine chapters and begins with a historical overview of various methods that have evolved for producing rapidly solidified materials. The criteria for the formation of highly metastable states and how these relate to experiment are described. Subsequent chapters explore rapid solidification of non-metals; the industrial implications of rapid solidification of iron-based alloys by means of plasma spraying; annealing effects in metallic glasses; and the corrosion behavior of amorphous alloys. The mechanical properties of metallic glasses are also considered, along with the electrical properties of rapidly solidified materials. This book should be of interest to materials scientists and engineers as well as metallurgists, researchers, and students.

The fourth volume of the Collected Works is devoted to Wigners contribution to physical chemistry, statistical mechanics and solid-state physics. One corner stone was his introduction of what is now called the Wigner function, while his paper on adiabatic perturbations foreshadowed later work on Berry phases. Although few in number, Wigners articles on solid-state physics laid the foundations for the modern theory of the electronic structure of metals.