Computer modeling has reached a new level of sophistication, where it can be used to predict the structure and energy of interfaces in oxides. Nowhere is this activity more important than in these ceramic materials, where more applications are being discovered but the fundamental properties are often poorly known or not known at all. As more multicomponent oxides are exploited for their novel properties, both the experimentalist and the modeler will be challenged to predict or explain the behavior of these materials under a wide range of conditions. This book focuses on the interfaces of oxide-based materials. The areas of composite materials, materials synthesis, microscopy, defect chemistry and structure, nanomaterials technologies, thin-film synthesis and characterization, computer modeling, structural characterization and properties measurement of surfaces and internal interfaces are featured together with advances in computer modeling of oxide interfaces. A series on structural characterization of surfaces and interfaces utilizing advanced microscopic techniques is also provided, as is a series on the measurement of properties of real interfaces (diffusion, mechanical, electrical and magnetic).

Because surfaces and interfaces found in oxide systems are strikingly complex, they can only be fully understood when examined at an atomic level. Yet for the materials scientist, such understanding is of paramount importance since future technological advances require it. This book, the second in a new series from the Materials Research Society, addresses structure-property relationships in these systems. Compared to the first proceedings, here we see a shift towards less well-defined materials that often more closely resemble reality, and an increasing effort to study these phenomena using in situ techniques. Of particular interest are discussions on the dynamical evolution of surface structure and relationships between the structure of surfaces, their stoichiometry and the distribution of bulk dislocations, which in turn can control the growth and retraction of islands and pits. Modeling and characterization of thin intergranular films, with a focus on how these films influence the properties of so many ceramic materials, are also addressed.

Computer modeling has reached a new level of sophistication, where it can be used to predict the structure and energy of interfaces in oxides. Nowhere is this activity more important than in these ceramic materials, where more applications are being discovered but the fundamental properties are often poorly known or not known at all. As more multicomponent oxides are exploited for their novel properties, both the experimentalist and the modeler will be challenged to predict or explain the behavior of these materials under a wide range of conditions. This book focuses on the interfaces of oxide-based materials. The areas of composite materials, materials synthesis, microscopy, defect chemistry and structure, nanomaterials technologies, thin-film synthesis and characterization, computer modeling, structural characterization and properties measurement of surfaces and internal interfaces are featured together with advances in computer modeling of oxide interfaces. A series on structural characterization of surfaces and interfaces utilizing advanced microscopic techniques is also provided, as is a series on the measurement of properties of real interfaces (diffusion, mechanical, electrical and magnetic).

The use of ion beams for the modification of the structure and properties of the near-surface region of ceramics began in earnest in the early 19805. Since the mechanical properties of such materials are dominated by surface flaws and the surface stress state, the use of surface modification tech niques would appear to be an obvious application. As is often the case in research and development, most of the initial studies can be characterized as cataloging the response of various ceramic materials to a range of ion beam treatments. The systematic study of material and ion beam parameters is well underway and we are now designing experiments to provide specific information about the processing parameter - structure-property rela tionships. This NATO-Advanced Study Institute was convened in order to assess our current state of knowledge in this field, to identify opportunities and needs for further research, and to identify the potential of such processes for technological application. It became apparent that this class of inorganic compounds, loosely termed ceramics, presents many challenges to the understanding of ion-solid inter actions, the relationships among ion-beam parameters, materials parameters, and the resulting structures, as well as relationships between structure and properties. In many instances, this understanding will represent a major extension of that learned from the study of metals and semiconductors.

In eight volumes, Surface and Interface Science covers all fundamental aspects and offers a comprehensive overview of this research area for scientists working in the field, as well as an introduction for newcomers. Volume 5: Solid-Gas Interfaces I Topics covered: Basics of Adsorption and Desorption Surface Microcalorimetry Adsorption of Rare Gases Adsorption of Alkali and Other Electro-Positive Metals Halogen adsorption on metals Adsorption of Hydrogen Adsorption of Water Adsorption of (Small) Molecules on Metal Surfaces Surface Science Approach to Catalysis Adsorption, Bonding and Reactivity of Unsaturated and Multifunctional Molecules Volume 6: Solid-Gas Interfaces II Topics covered: Adsorption of Large Organic Molecules Chirality of Adsorbates Adsorption on Semiconductor Surfaces Adsorption on Oxide Surfaces Oscillatory Surface Reactions Statistical Surface Thermodynamics Theory of the Dynamics at Surfaces Atomic and Molecular Manipulation

Uniquely describes both the crystallography and properties of perovskite related materials. Practical applications in solar cells, microelectronics and telecommunications Interdisciplinary topic drawing on materials science, chemistry, physics, and geology Contains problems and answers to enhance knowledge retention

This graduate-level textbook covers the major developments in surface sciences of recent decades, from experimental tricks and basic techniques to the latest experimental methods and theoretical understanding. It is unique in its attempt to treat the physics of surfaces, thin films and interfaces, surface chemistry, thermodynamics, statistical physics and the physics of the solid/electrolyte interface in an integral manner, rather than in separate compartments. It is designed as a handbook for the researcher as well as a study-text for graduate students. Written explanations are supported by 350 graphs and illustrations.

The interrelation among composition, microstructure, and properties of stoichiometric and nonstoichiometric compounds is a major field of research for both scientific and technological reasons. As such, this book focuses on metal oxides, which present a large diversity of electrical, magnetic, optical, optoelectronic, thermal, electrochemical, and catalytic properties, making them suitable for a wide range of applications. By bringing together scientific contributions with special emphasis on the interrelations between materials chemistry, processing, microstructures, and properties of stoichiometric and nonstoichiometric metal oxides, this book highlights the importance of tightly integrating high-throughput experiments (including both synthesis and characterization) and efficient and robust theory for the design of advanced materials.