Thermal analysis of Micro, Nano- and Non-Crystalline Materials

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Boris Imelik, Jacques C. Vedrine

This unique reference critically analyzes the use and application of all major physical methods for determining the structure and behavior of catalysts. Each chapter presents a detailed description of a technique and its theoretical basis, a definition of its field of application, and examples of validity and limitation. Extensive cross referencing between chapters ensures seamless continuity as well as a holistic view of the field. This new edition covers the substantial progress made since its predecessor in characterization of catalysts.

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T. P. Martin

Very recently it has become possible to produce and characterize large clusters containing an exact, predetermined number of atoms. Through these efforts it has become clear that clusters containing even as many as 20,000 atoms cannot yet be considered as being tiny crystals. Their structure is often icosahedral. Their electrons are organized into shells rather than bands. In many respects the clusters behave more like giant atoms than solids. The interest in clusters has grown explosively in the last few years and there has been no lack of conferences devoted to clusters in general. However, only a few groups have begun to develop the experimental and theoretical techniques needed for the study of clusters containing 100 or more atoms. In this book, representatives from these groups have contributed tutorial chapters explaining the methods they have developed. Audience: Scientists with little experience in clusters as well as cluster experts who wish to initiate experiments on large clusters.

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Markus J. Buehler, Roberto Ballarini

Multiscale mechanics of hierarchical materials plays a crucial role in understanding and engineering biological and bioinspired materials and systems. The mechanical science of hierarchical tissues and cells in biological systems has recently emerged as an exciting area of research and provides enormous opportunities for innovative basic research and technological advancement. Such advances could enable us to provide engineered materials and structure with properties that resemble those of biological systems, in particular the ability to self-assemble, to self-repair, to adapt and evolve, and to provide multiple functions that can be controlled through external cues. This book presents material from leading researchers in the field of mechanical sciences of biological materials and structure, with the aim to introduce methods and applications to a wider range of engineers.

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Hans Berns, Valentin Gavriljuk, Sascha Riedner

High Interstitial Stainless Austenitic Steels is of interest to all engineers and resaerchers working with stainless steel, either at universities or R&D departments in Industry. The new applications described appeal to design engineers while procees engineers find interesting challenges. These novel steels enter more and more industrial applications. Their development is presented by this book in its entirety, starting from the electronic scale of components. This makes it particlularly attractive to Materials Scientists and Metal Physicists.