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This book presents the results of research on the regularities during thermocyclic impact on changes in structural-phase states of functional alloys with low-stability or instability in the area of structural-phase transformations. Without clarification of the physical regularities of the influence of thermomechanical impact on the properties of alloys, it is impossible to develop technological processes of processing functional materials; therefore, the book widely uses the results of many years of research by the authors of the book. It is known that critical temperatures and stresses for martensitic transformation, for example, B 2↔︎ B 19′, in NiTi are very sensitive to cycling. The study of structural-phase states, corresponding to changes in physical-mechanical properties of intermetallics in the area of transformations, is a necessary aspect of understanding the nature of the influence of thermomechanical cycling on the properties of functional alloys. This book is dedicated to the fundamental physical aspects of stability, the influence of structural defects on properties and structural-phase transformations of FCC alloys. This book is useful for a wide range of specialists—scientific researchers and engineers, working in the field of materials science and physics of condensed systems, as well as teachers, postgraduates and students, specializing in the field of materials science.

Condensed matter. --- Metals. --- Structure of Condensed Matter. --- Two-dimensional Materials. --- Metals and Alloys.

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This book highlights some aspects of processing, microstructure, and properties of materials in fibrous form, or from fibers, with wide applications for textile-oriented and technically oriented advanced products. Emphasis is placed on the physical and chemical nature of the processes, describing the behavior and properties of the investigated materials. The chapters describing the state and expected trends in selected areas summarize not only the published works but also the original results and the critical evaluation and generalization of basic knowledge. In addition to the preparation of materials with new effects, attention is focused on the development of new testing principles, the construction of special devices, and metrological aspects. Research activities cover all types of fibers with a clear shift toward synthetic and specialty fibers for non-clothing applications. This is in line with the current development trend in the field of high-performance fibers, mainly for use as reinforcement in various composite materials and functional fibers for smart textiles. The area of fibrous materials covered in this book is indeed very large. Compressing the basic available information in a reasonable space was therefore a difficult task. The goal in writing this book was to provide a broad area of different results so that the book is suitable for anyone who is generally interested in fibrous materials and their applications for various purposes.

Condensed matter. --- Building materials. --- Biopolymers. --- Biomaterials. --- Composite materials. --- Nanoscience. --- Structure of Condensed Matter. --- Wood, fabric, and textiles. --- Composites. --- Two-dimensional Materials. --- Nanophysics. --- Fibers. --- Fibrous composites.

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This book explores the intricate world of electron behavior within solids, revealing them to be waves—a fundamental insight crucial to grasping modern electronics, computing, and solid-state devices. This comprehensive examination elucidates the factors determining material conductivity, distinguishing between conductors, insulators, and semiconductors. Through detailed analysis, the text illuminates the thermal agitation of solids, manifesting as vibrations known as phonons, which impede electron flow and contribute to electrical resistance. Readers gain insight into the production of electronic devices through semiconductor doping, exploring various device types and their functionalities. The book further investigates the temperature-dependent behavior of metal resistance, including the phenomenon of superconductivity, wherein resistance vanishes entirely at low temperatures—a phenomenon comprehensively elucidated within these pages. Moreover, the text unravels the mysteries of magnetism in solids, exploring how certain metals, such as iron, exhibit permanent magnetism. By probing into the underlying causes of magnetism, readers gain a deeper understanding of solid-state physics. Additionally, the book explores imaging techniques such as X-rays, offering insights into how scientists peer inside solids to decipher their internal structures and properties. Geared toward scientists and engineers, the book serves as an indispensable resource for mastering the foundational concepts of solid-state physics—a discipline indispensable to modern technology.

Semiconductors. --- Solid state physics. --- Magnetism. --- Condensed matter. --- Physics. --- Astronomy. --- Electronic Devices. --- Structure of Condensed Matter. --- Condensed Matter Physics. --- Physics and Astronomy.

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This book highlights the latest advances in advanced insulating materials. Energy crisis and environmental pollution are two major themes currently faced by the human society. It is of unprecedented strategic importance to construct a strong smart grid with super/ultra-high voltage network as the backbone and clean energy transmission as the leading force. However, the performance of electrical equipment and devices is greatly determined by the properties of their insulating materials, especially when they have to work in extreme circumstances including high-temperature differences, intense radiation, and strong electric fields. The key advantage of polymers is that their properties could be adjusted by changing their chemical composition and molecular structure. Research on polymer insulating materials has been highly successful as progress has been made in characterizing these properties, designing molecular structures, and studying polymers’ specialized properties. On the other hand, nanodielectrics are prepared by adding certain nanoscale fillers into a polymer matrix to yield better electrical, thermal, and mechanical properties. When the particle pretreatment methods and the content or category of fillers are adjusted, nanodielectrics tend to have greater breakdown strength as well as better high-temperature resistance and space charge suppression. Therefore, this book covers investigations of properties of insulating materials that explore their interface effects and composite structures and introduces findings in methods that improve the performance of electrical devices. The book is not only used as a timely reference for engineering and technical personnel in related fields but also as a comprehensive textbook for college students.

Condensed matter. --- Surfaces (Physics). --- Polymers. --- Nanotechnology. --- Materials --- Thermodynamics. --- Heat engineering. --- Heat transfer. --- Mass transfer. --- Structure of Condensed Matter. --- Surface and Interface and Thin Film. --- Nanoscale Design, Synthesis and Processing. --- Characterization and Analytical Technique. --- Engineering Thermodynamics, Heat and Mass Transfer. --- Analysis.

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This thesis demonstrates the value of theoretical approaches in the discovery of new superconducting materials. It reports a detailed study of the recently discovered nickel-oxide (nickelate) superconductors using multiple first-principles computational tools, from density functional theory to dynamical mean field theory. In the context of superconductivity, discoveries have generally been linked to serendipitous experimental discovery; this thesis reports some of the few examples of predictions of new superconductors that have later been realized in practice, a prime example of the significance of the methodology it expounds. Overall, it represents a seminal systematic work in the electronic structure theory of the emergent field of nickelate superconductivity.

Superconductivity. --- Superconductors. --- Condensed matter. --- Materials science --- Electronic structure. --- Quantum chemistry --- Solid state physics. --- Mathematical physics. --- Computer simulation. --- Structure of Condensed Matter. --- Electronic Structure Calculations. --- Electronic Devices. --- Computational Physics and Simulations. --- Data processing. --- Computer programs.