http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
1 online resource (xv, 453 pages) : illustrations
Since the discovery of the transistor in 1948, the study of the solid state has been burgeoning. Recently, cold fusion and the ceramic superconductor have given cause for excitement. There are two approaches possible to this area of science, namely, that of solid state physics and solid state chemistry, although both overlap extensively. The former is more concerned with electronic states in solids (including electromagnetics) whereas the latter is more concerned with interactions of atoms in solids. The area of solid state physics is well documented, however, there are very few texts which de.
Front Cover; Luminescence and the Solid State; Copyright Page; Preface; Acknowledgement; Table of Contents; Introduction; CHAPTER 1. INTRODUCTION TO THE SOLID STATE; 1. Changes of State; 2. Energetics of Changes of State; 3. Propagation Models and the Close-Packed Solid; 4. The Structure of Solids; 5. Determination of Structure of Compounds and Materials; 6. The Defect Solid; CHAPTER 2. THE POINT DEFECT; 1. Types of Point Defects; 2. The Plane Net; 3. Non-Stoichiometric Crystals; 4. Defect Equation Symbolism; 5. Some Applications for Defect Chemistry; 6. Thermodynamics of the Point Defect.
7. Defect Equilibria in Various Types of Compounds8. Brouwer's Approximation Method; 9. Analysis of A Real Crystal using Brouwer's Method-Comparison to the Thermodynamic Method; 10. The Effects of Purity (and Impurities); CHAPTER 3. THERMAL ANALYSIS IN SOLID STATE CHEMISTRY; 1. Scanning Methods; 2. Differential Thermal Analysis; 3. Differential Scanning Calorimetry; 4. Uses of DTA and DSC; 5. Thermogravimetry; 6. Determination of Rate Processes in Solid State Reactions; CHAPTER 4. SOLID STATE REACTION MECHANISMS; 1. Types of Solid State Reactions; 2. Defining Reaction Conditions.
3. Heterogeneous Nucleation Rate Processes and Models4. The Tarnishing Reaction; 5. Fick's Laws of Diffusion; 6. Diffusion Mechanisms; 7. Analysis of Diffusion Reactions; 8. Diffusion in Silicates; 9. Diffusion Mechanisms Where the Cation Changes Valence State; 10. Homogeneous Nucleation Processes; CHAPTER 5. GROWTH OF PARTICLES AND PARTICLE PROPERTIES; 1. Sequences in Particle Growth; 2 Sintering and Sintering Processes; 3. Particle Size; 4. Particle Distributions; 5. Particle Distributions and the Binomial Theorem; 6. Measuring Particle Distributions.
7. Analysis of Particle Distribution Parameters8. Types of Log Normal Particle Distributions; 9. A Typical PSD Calculation; 10. Methods of Measuring PSD; CHAPTER 6. GROWTH OF SINGLE CRYSTALS; 1. Types of Crystals; 2. Furnace Construction; 3. Steps in Growing a Single Crystal; 4. Czochralski Growth of Single Crystals; 5. The Bridgeman-Stockbarger Method for Crystal Growth; 6. Zone Melting as a Means for Forming Single Crystals; 7. Zone Refining; 8. The Impurity Leveling Factor; 9. The Verneuil Method of Crystal Growth; 10. Molten Flux Growth of Crystals; 11. Hydrothermal Growth.
12 Vapor Methods Used for Single Crystal Growth13. Edge Defined Crystal Growth; 14. Melting and Stoichiometry; 15. Actual Imperfections in Crystals; 16. Electronic Properties of Crystals; 17. The Calculation of Energy Bands In Crystals; 18. Point Defects and the Energy Band Model; Appendix to Chapter 6: Mathematics of the Reciprocal Lattice; CHAPTER 7. OPTICAL PROPERTIES AND LUMINESCENCE; 1. Absorbance, Reflectivity and Transmittance; 2. Electronic Aspects of Phosphors; 3. Factors Associated with Energy Conversion by Phosphors; 4. Prediction of Electronic Transition Intensities.
Includes bibliographical references and index.