Selected, peer reviewed papers from the 16th International Conference on Internal Friction and Mechanical Spectroscopy, (ICIFMS-16), July 3 – 8, 2011, Lausanne, Switzerland
This book is a unique collection of experimental data in the field of internal friction, anelastic relaxation, and damping properties of metallic materials. It reviews virtually all anelastic relaxation phenomena ever published. The reader is also supplied with explanations of the basic physical mechanisms of internal friction, a summary of typical effects for different groups of metals, and more than 2000 references to original papers.
This book comprises the proceedings of the Second International School on Mechanical Spectroscopy; presented here as invited lectures (Part I) and contributed papers (Part II). After having originated merely as a technique for the study of internal friction, mechanical spectroscopy has developed strongly, during the past decade, into a tool which is now indispensable for making advances in the creation of new materials. This book will therefore provide an excellent reference source for every researcher working in the field.
This work bridges the gaps between mechanical spectroscopy, internal friction, relaxation phenomena in solids and the spectroscopic approach to the dissipation of mechanical energy in solids. A limited number of papers are selected from different fields in order to compare the analysis of similar relaxation phenomena occurring in various materials.
Dynamic mechanical analysis (DMA) has left the domain of the rheologist and has become a prevalent tool in the analytical laboratory. However, information on the use of this important tool is still scattered among a range of books and articles. Novices in the field have to dig through thermal analysis, rheology, and materials texts just to find the
Mechanical spectroscopy is a non-desctructive technique that is very well suited for studying the dynamics of singularities such as structural defects in solids. It has been successfully applied in solid state physics and materials science for more than 50 years, and in this textbook aims at summarizing the state-of-the-art in this field by presenting results obtained by Western European laboratories. spectroscopy (Ch. 1) is basedon a complete description of elastic, viscoelastic, and viscoplastic behaviour of solids. The anelastic response is analyzed from three different veiwpoints: phenomenology, rheology and thermodynamics. defect dimensionality: point defects (Ch. 2) one-dimensional defects, such as dislocations (Ch. 3), two-dimensional defects, such as grain boundaries (Ch. 4) or the surface of domains (Ch 6). Mechanical losses associated with phase transitions are presented in chapter 5, and relaxation in non-crystalline materials in chapter 7. as thin-layers, localized surface properties, stress relazation in composites, fatigue and the development of high-damping materials, are described, with examples, in chapter 8. Chapter 9 covers classical, and new, techniques for measuring internal friction or ultrasonic attenuation in solids, from macro- down to nanoscale.
This book describes the central aspects of diffusion in solids, and goes on to provide easy access to important information about diffusion in metals, alloys, semiconductors, ion-conducting materials, glasses and nanomaterials. Coverage includes diffusion-controlled phenomena including ionic conduction, grain-boundary and dislocation pipe diffusion. This book will benefit graduate students in such disciplines as solid-state physics, physical metallurgy, materials science, and geophysics, as well as scientists in academic and industrial research laboratories.
Comprises 27 papers from the November 1995 symposium in Norfolk, Virginia. Covers the intersection of the fields of mechanics of solids and materials science. Representative topics: internal friction associated with discontinuous precipitation in lead-tin alloys, magnetomechanical damping in thermal